Dodge Charger Daytona: 32A vs 40A vs 48A Home Charging
Quick answer: The 2026 Dodge Charger Daytona includes a 32-amp Level 2 charger/dongle, while Dodge also offers 40-amp and 48-amp home stations. On a nominal 240-volt supply those outputs are roughly 7.7, 9.6 and 11.5 kW. A 48-amp unit can therefore deliver about 50% more power than the included 32-amp setup, but it is only valuable if the household needs the shorter recovery window and the electrical system is designed for it.
Translate amps into the number that affects charging time
| EVSE output | Approximate 240 V power | Relative to 32 A |
|---|---|---|
| 32 A | 7.68 kW | Baseline |
| 40 A | 9.60 kW | 25% more power |
| 48 A | 11.52 kW | 50% more power |
Those are simple voltage-times-current values, not guaranteed battery input. The car, wiring, voltage at the site, temperature and conversion losses all matter. Still, the ratios are useful: if a particular energy refill takes eight hours at 32 A under the same conditions, the idealized math suggests about 6.4 hours at 40 A and roughly 5.3 hours at 48 A. Real sessions will not scale perfectly, but the difference is large enough to matter for some drivers.
The included 32 A charger is not a “slow” setup
A 32-amp Level 2 unit is already a substantial home charger. It can replace dozens of miles during an overnight parking window and may be all that a commuter needs. Dodge includes it precisely because it covers normal ownership without automatically requiring the largest home circuit. Before upgrading, estimate how many kilowatt-hours you actually need between arrival and departure. The EV cost-per-mile guide can help translate driving into energy demand instead of starting from charger marketing.
When the 48 A option changes the day
The 48-amp case becomes more useful when the Charger is driven hard, arrives home late, departs early, or shares the household with another EV. Dodge says its available 40-amp or 48-amp home stations can charge the battery up to 80% in roughly six to eight hours, depending on conditions. That is a broad range rather than a promise for every configuration, but it tells you the intended use: faster overnight recovery, not public-style rapid charging in a garage.
Why “bigger” can create an unnecessary electrical project
Moving from 32 A to 48 A changes more than the number in the app. EV charging is a sustained electrical load, so the service, panel capacity, circuit and installation must all support the selected output. A home that handles 32 A comfortably may need load management or additional work to support 48 A alongside HVAC, cooking and water heating. Use load management vs service upgrade as the planning fork, then have the final design checked by a qualified electrician.
A practical way to decide before buying hardware
- Record your typical arrival state of charge for one week.
- Estimate how much energy you need before the next morning rather than targeting 100%.
- Count the hours that actually fall inside your preferred off-peak period.
- Compare that window with 7.7, 9.6 and 11.5 kW nominal output.
- Upgrade only if the lower-output option regularly misses the required departure target.
This method avoids designing the garage around a rare road-trip return. A driver who usually needs 25–35 kWh overnight has a very different requirement from someone who repeatedly uses a large share of the pack and has only five hours to recharge.
Public charging makes the home maximum less critical
Dodge lists 175-kW public charging for the Charger Daytona and also supports NACS access through an adapter for compatible Tesla Superchargers. Home charging and road-trip charging therefore solve different problems. If the occasional 600-mile weekend is the only reason you think you need 48 A at home, the public fast-charging network may already cover that exception. Home equipment should optimize the other 95% of charging sessions.
Choose the output for the schedule, not the car’s performance image
The Charger Daytona is marketed as an electric muscle car, but the best home-charging decision is deliberately boring. A 32-amp unit can be excellent for a long overnight window; 40 A adds a useful middle step; 48 A is for households that can use the extra 3.8 kW over 32 A. If you cannot identify a recurring situation where that extra rate prevents a missed departure target, the included equipment may already be the sensible choice.
Build a 32A baseline before pricing a 48A upgrade
The included 32-amp setup gives Charger Daytona owners a useful real-world baseline. Use it for two or three weeks before deciding that 40 or 48 amps is necessary. Record how many kilowatt-hours are added overnight and whether the car ever leaves below the intended target. A household that consistently finishes charging by 2 a.m. has little operational reason to increase output, even if the car and property can support it. By contrast, a driver who arrives after midnight with a large deficit and departs at 6 a.m. can quantify exactly how many additional kilowatt-hours would be useful in that short window.
Translate the upgrade into hours saved per month
The jump from 32 A to 48 A increases nominal 240-volt power from about 7.7 kW to 11.5 kW. On a 40 kWh refill, idealized charging time before losses falls from roughly 5.2 hours to 3.5 hours. That sounds significant, but multiply the saving by the number of nights you actually need a 40 kWh refill. If that occurs twice a month, the practical benefit is only a few hours of schedule flexibility. If it happens four nights a week, the faster installation can materially change ownership. The frequency of the deep refill is the missing variable in most charger comparisons.
Account for a second EV before choosing the largest single charger
A household planning to add another EV can sometimes gain more from coordinated load sharing than from dedicating the maximum possible circuit to the Charger Daytona. Two moderate chargers that share available capacity can keep both cars ready without forcing a major service upgrade. In that scenario, the Charger may rarely see 48 amps continuously, yet the household as a whole charges more efficiently because power is allocated to whichever car needs it. Think in terms of total overnight energy across the garage, not just the maximum rate of one vehicle.
Use the public network as an emergency capacity valve
The existence of 175 kW public charging changes the economics of home oversizing. If the home setup misses a departure target only once or twice a year, a short public stop can be cheaper than installing larger electrical infrastructure solely for those rare events. This is especially relevant to renters, older homes or properties where upgrading service is expensive. Home charging should cover routine use reliably; the public network can absorb unusual travel days. The best setup is therefore not the one that makes public charging unnecessary under every imaginable scenario.
Decision trigger
A 48-amp upgrade becomes easy to justify when the 32-amp charger repeatedly fails a clearly defined requirement: the car does not reach the needed departure percentage, charging extends beyond the low-cost electricity window, or two EVs cannot both recover their daily use overnight. If none of those problems appears in the first month, the included 32-amp equipment is already doing the job it was designed to do.
A one-month Charger Daytona home-charging audit
Treat the first month with the included 32-amp equipment as a controlled trial. For every overnight session, note the arrival percentage, departure target, plug-in time and the hour at which the car reached the target. The useful number is not the maximum amps on the screen; it is the amount of unused parking time left after charging finishes. If the car routinely reaches its target three or four hours before departure, 32 amps already provides substantial headroom. If charging repeatedly runs into the departure window, the log gives a factual case for moving to 40 or 48 amps rather than upgrading because the larger number sounds future-proof.
Put 32A, 40A and 48A into the same energy scenario
Use a 45 kWh overnight refill as an example. At nominal 240-volt power, 32 amps is about 7.7 kW, 40 amps about 9.6 kW and 48 amps about 11.5 kW before vehicle and charging losses. The idealized time difference is roughly 5.8 hours, 4.7 hours and 3.9 hours. Real sessions will be longer, but the comparison exposes the size of the benefit: the move from 32 to 48 amps saves roughly two hours on a relatively deep refill, not an entire night. That distinction matters when deciding whether electrical work is worth paying for.
Test the off-peak-window argument with your actual tariff
If the cheapest electricity period lasts four hours, a higher charging rate can shift more of a deep refill into that window. But the benefit exists only on nights when the battery deficit is large enough to use the extra power. Calculate how many kWh the Charger normally needs after a workday, multiply that by the number of charging nights per month, then compare the cost if some energy spills into a higher-price period. A 48-amp installation can be financially useful for a high-mileage driver with a short off-peak window, while offering almost no tariff benefit to a driver who replaces only 12–18 kWh each night.
Do not forget thermal and vehicle limits
The EVSE advertises the power available to the car; it does not guarantee that the car will draw that amount every minute. Battery temperature, state of charge, vehicle settings and onboard charging limits can affect the session. After an upgrade, verify results by looking at energy added over a complete session rather than judging performance from a momentary amperage reading. If a new 48-amp installation never materially shortens real charging time, diagnose the system before assuming the charger is defective. The vehicle, supply voltage and control settings all belong in the same troubleshooting chain.
A practical upgrade threshold
Upgrade because a repeated problem exists: missed departure targets, expensive tariff spillover, a second EV competing for the same overnight window, or unusually short parking periods. If none of those conditions occurs, staying with the included 32-amp solution can be the more efficient ownership choice. The Charger Daytona still retains public fast charging for exceptional travel days, so the home system does not need to reproduce road-trip charging speed. Home infrastructure should solve the recurring household problem, not every rare scenario the car may encounter.
Sources and verification
Manufacturer references used for the specifications above:
Last verified: September 6, 2026.