Direct answer
A commercial Level 2 port usually runs $3,500 to $18,000 installed.
The charger is the smaller half of that. Single-connector Level 2 equipment runs about $400 to $6,500, and DC fast equipment runs about $10,000 to $40,000 per connector. Installed DC fast projects in Texas commonly land between $75,000 and $350,000 per dispenser. Everything between those equipment prices and the installed price is electrical capacity, conduit distance, site work, and permitting.
A site review sets the real number. It has to confirm spare panel capacity, the distance from the service to the stalls, pavement conditions, and whether the utility needs to upgrade anything to feed the load.
Choose from the schedule
Charging power should come from the parking schedule, not the brochure
Level 2 sends alternating current to the vehicle, and the vehicle's onboard charger decides how fast that becomes stored energy. A higher nameplate rating does not make a vehicle accept power faster than its own equipment allows. When cars and trucks sit for four hours or more, which describes most offices, hotels, apartment properties, and overnight fleet yards, time can do the work that expensive charging power would otherwise have to do.
DC fast charging exists for vehicles that must take on real energy during a short stop. It moves the power conversion outside the vehicle and sends direct current straight to the battery. That is the right answer for service fleets, delivery routes, and public sites where drivers will not wait. It also asks far more from the property. A DC fast project can pull in transformers, switchgear, a utility service study, and demand charges that a Level 2 project never touches.
Start with daily miles and available parking hours. Add a reserve for detours, aging batteries, and missed sessions. Decide how many vehicles must charge at the same time. Only then pick the power level.
Build the whole number
What belongs in a commercial charging budget
A useful budget keeps the charger separate from the work that powers it. Hold these lines apart in every quote so a cheap piece of hardware cannot hide an expensive electrical route.
Do not buy the box first
Pick the hardware after the site and the operating plan are settled
A product page cannot tell you whether the building has spare amps, whether your vehicles will accept the advertised rate, or whether the stalls you want can be built without closing half the lot during business hours. Hardware selection belongs after the duty-cycle math and the first site walk. Buy earlier and you can end up with units too powerful for the available service, too slow for the shift schedule, or missing the payment and access features the property actually needs.
Compare more than nameplate power. Look at connector compatibility, cable reach, pedestal versus wall mounting, environmental rating, accessible-stall requirements, communications, payment options, load-management support, warranty terms, and how fast a replacement part arrives. Open communication standards matter more than they sound: they let you change software providers later without replacing the physical stations.
Separate required features from optional ones before you ask for pricing. Public payment, employee billing, fleet authentication, energy reporting, remote reset, and uptime monitoring all solve different problems and all carry cost. Write the operating requirements first, then ask each vendor to show exactly how their equipment meets them.

The expensive path
Why two New Braunfels properties price completely differently
Put four Level 2 ports beside an electrical room with spare breakers and the route stays short. Move those same ports across an occupied lot and you add trenching, traffic control, pavement repair, longer conductor runs, and voltage-drop analysis. The chargers did not change. The site did.
Lower-complexity site
Fewer building changes
• Spare panel and service capacity
• Short, accessible conduit route
• Stalls already near existing power
• Little or no pavement restoration
Higher-complexity site
More infrastructure work
• Transformer or service upgrade
• Long underground route across the lot
• Boring beneath drives or loading areas
• DC fast charging with high peak demand
Replace guesses with site facts
A site walk should answer the expensive questions before design starts
The first visit is not a parking count. The reviewer should find the utility service, the transformer, the main switchgear, the distribution panels, the open breaker positions, and the practical routes between power and parking. Nameplate ratings are only a starting point. Recent interval data, demand history, existing load calculations, and any planned building work tell you whether the spare capacity on paper is actually available for charging.
Outside the electrical room, mark the proposed charger positions and walk the route. A straight line on an aerial photo can cross a fire lane, a storm line, a post-tensioned slab, an irrigation main, or the dock your tenants use every morning. Walking it with facilities and operations staff surfaces those conflicts before an engineer builds the wrong plan.
The operating interview matters just as much. Ask when vehicles arrive, how long they stay, whether drivers return to assigned spaces, what happens when a port is blocked, and who responds when charging fails. For public or employee charging, settle payment, access, and idle policy now. For fleets, write down the departure schedule and flag which vehicles cannot miss a shift. That turns a charger count into a system the building can run.
A remote estimate is a range, not a construction number
Photos, drawings, and twelve months of utility bills narrow the problem, but a firm scope needs measured routes and verified electrical conditions. The estimate should name every assumption still waiting on field confirmation.
New Braunfels planning
The utility and the permit desk set the schedule here
New Braunfels sits on the I-35 corridor between San Antonio and Austin, and the two things that decide a project timeline have nothing to do with the charger. The first is the utility. Bring your provider in before the charger locations are final so you learn early whether the existing service carries the load or whether a transformer or service upgrade is coming. That single answer moves the budget more than any hardware choice.
The second is permitting. Commercial site plan and electrical permits on comparable Texas projects commonly run ten to eighteen weeks, and four to nine months from signed contract to energized chargers is normal when a service upgrade is in the path. Central Texas heat belongs in the specification too. Outdoor cabinets, screens, and cables need environmental ratings that survive a full summer outdoors.
The New Braunfels takeaway
Call the utility and the permit desk while the charger locations can still move on paper. Moving a charger on a drawing costs nothing. Moving trenching after design and approval costs real money and real weeks.
After construction
The installation quote is not the cost of running chargers
Decide who owns the equipment before you sign anything. Equipment the property buys, installs, and maintains costs less overall and gives full control, but every repair, warranty gap, and replacement part lands on you. Provider-owned equipment shifts that responsibility and shifts the economics with it. Either way, write down who diagnoses a dead port and how fast they show up.
Then model the electricity. Utility bills price energy by the kilowatt-hour and add a demand charge based on the highest fifteen-minute average draw in the billing period, and DC fast charging is far more likely to trigger that charge than Level 2. Ask whether time-of-use rates or charging-specific rate options are available before you assume a number.
Revenue is a choice, not a given. Retail charging in Texas metros commonly prices between $0.35 and $0.65 per kilowatt-hour, and more than twenty percent of public charging nationally is still free to use as an amenity. Pick the model that matches why you are installing chargers at all.
Ownership
Who fixes it at 6 a.m.
Owning the equipment lowers total cost and gives full control. It also makes you responsible for repairs, parts, and every hour a port sits dead. Get response time and uptime in writing.
Utility bill
Demand charges
The bill prices your highest fifteen-minute average draw for the whole period. Load management can spread that peak, but only when vehicles have enough dwell time to wait their turn.
Money and sequence
Build the budget on programs that are actually open
Do not plan around a federal credit that has closed. The 30C charging credit covered up to 30 percent of a project, capped at $100,000 per item, for property in eligible census tracts. It no longer applies to property placed in service after June 30, 2026. Projects energized before that date still claim it at filing; a project starting now should not count on it. Charging equipment is still depreciable business property, so ask your tax advisor how the capital cost gets recovered before you assume the incentive column is empty. Utility and state programs, where they are open and funded, now carry most of the load, and they generally do not pay backward. Apply before construction starts.
Phasing controls the first check without forcing a second demolition. Trenching, conduit, pull boxes, equipment pads, and reserved panel space are cheapest when done once. Install that path for the full future port count and energize only the ports today's demand supports. This only works when the design records the final port count, the assumed power per port, and exactly where the conduit ends. Ask for the expansion alternate priced next to the base project, because seeing both numbers tells you what flexibility is really worth.
Before you compare bids
Five things a comparable quote has to show
Ask every bidder to price the same port count, power level, conduit route, panel work, network term, restoration, and commissioning. If one quote excludes civil or utility work and another includes it, the totals are not comparable numbers.
01
The operating case behind the port count
Vehicle dwell time, daily energy per vehicle, and how many charge at once.
02
Measured existing electrical capacity
Service size, available panel space, demand history, and the load-management assumption.
03
Exact charger locations and route length
Where the conduit runs, what it crosses, and how the pavement gets restored.
04
What is included and what is excluded
Permits, inspections, utility coordination, network activation, and commissioning.
05
A priced expansion alternate
What it costs today to make the next ports possible without reopening the lot.
Keep planning locally
Related EV charging pages in New Braunfels
Get a defensible number
Price the equipment and the building together.
Send the address, operating target, and target opening date. Flux will identify what must be verified before the project can be priced.
Price my chargersQuestions
Straight answers.
How much does one commercial Level 2 port cost in New Braunfels?
Plan on roughly $3,500 to $18,000 installed. The equipment itself is about $400 to $6,500 per connector. The rest is electrical capacity, conduit distance, pavement work, permits, and commissioning.
Why is DC fast charging so much more expensive?
The equipment runs $10,000 to $40,000 per connector instead of a few thousand, and installed DC fast projects commonly land between $75,000 and $350,000 per dispenser once the service, switchgear, and utility work behind them are counted.
What should I budget after the chargers go live?
Network software commonly runs $15 to $40 per port each month, maintenance up to $400 per charger a year, and extended DC fast warranties can pass $800 per charger annually. Electricity and demand charges are usually the largest line.
How long does a project take?
Commercial site plan and electrical permits on comparable Texas projects run about ten to eighteen weeks, and four to nine months from contract to energized chargers is common when the utility has to upgrade service.
Do I have to charge drivers for using the chargers?
No. Retail charging in Texas metros commonly prices between $0.35 and $0.65 per kilowatt-hour, but more than twenty percent of public charging nationally is still offered free as a tenant or customer amenity.
Sources used for this guide
- [1]afdc.energy.gov — Alternative Fuels Data Center: Procurement and Installation for Electric Vehicle Charging Infrastructure
- [2]irs.gov — IRS Alternative Fuel Vehicle Refueling Property Credit
- [3]santibanservicesgroup.com — Commercial EV Charging in Houston: 2026 Infrastructure & Installation Guide - Santiban Services Group
- [4]winsparking.com — EV Charging Station Installation in Dallas, TX | Wins Parking
- [5]afdc.energy.gov — Alternative Fuels Data Center: Operation and Maintenance for Electric Vehicle Charging Infrastructure
- [6]afdc.energy.gov — U.S. DOE AFDC Electric Vehicles for Fleets
