An EV specialty shop owner in the Des Moines metro asked us last spring about getting auto lifts installed for a new build-out — she had heard EVs required different lifts, wanted a shop dedicated to CV axle and half-shaft work on late-model electrics, and had specific build-out sequencing questions. Some of what she had been told was true. Most was myth. This piece is the myth-busting walkthrough we do with EV specialty shops now, based on what we install for them and what we have actually seen work.
Commercial 12K 2-posts for EV service bays, quoted turnkey.
EV work looks the same as ICE work on the lift, mostly
The overwhelming truth about EV service on a lift: for the vast majority of tasks — tire, brake, suspension, CV axle, half-shaft, motor mount, subframe — you are doing work at the same lift points, with the same wheels-free access, on the same 2-post you would use for a Tacoma or a Malibu. Battery-related work is the exception, and even that is usually access-from-below rather than a fundamentally different lift geometry. What does change: EV lift points on some models are non-obvious, and hitting the wrong spot can crack a battery case or damage a subframe skid. That is a training issue, not a lift issue. When we have auto lifts installed at an EV specialty bay, we usually spend extra time in the commissioning walkthrough going over lift-point identification for the model mix the shop plans to service. Rivian and Tesla have specific factory-recommended lift points; Ford Mach-E and Lightning too. Get those documented and posted on the wall behind the lift. That is the practical adaptation, not a whole different lift class.
Myth: EV batteries need a special lift
The specific myth: you need a “battery lift” or an “EV-rated” 2-post that is different from what an ICE shop would run. In practice: a commercial 10K or 12K 2-post from Rotary or Challenger handles nearly every EV on the road today, including the heavier ones once you check curb weight. Battery drops usually happen with a separate battery table or dolly rolled under the raised vehicle — not by using a special lift. Where the myth has a kernel of truth: some full-size electric trucks (Lightning, Hummer EV, Cybertruck) push into the 8,000-pound and heavier curb-weight range, which nudges you toward 12K minimum. That is a capacity question, not a special-lift question. When we have had auto lifts installed for EV shops, we recommend 12K commercial 2-post as the default because the fleet mix now includes some heavy electric trucks. We do not recommend anything different from ICE-shop equipment beyond that. Save your money on marketing-driven “EV-rated” gear that is the same commercial 2-post underneath.
Myth: you should build your electrical first, then buy the lift
Common advice for garage build-outs: rough in all your electrical first, then decide what equipment to buy. For lift install, that is backward. The lift determines what electrical you need — voltage (208 vs 220 vs 240), phase (single vs three), amperage draw, and where the powerpack lives relative to the panel. If you build electrical first based on a guess and then buy a lift that wanted three-phase, you are back to rework. The right sequence: pick the lift class and model first, get the electrical spec from the manufacturer’s manual (we hand you a copy at quote), then run the electrical. On the concrete side, similar sequence — the lift specs the anchor pattern and depth, so pour or verify the pad after model selection, not before. Where we have had auto lifts installed cleanly and on-time, it has always been because the customer sequenced the trades in the right order. That is the piece the myth-busting walkthrough hits hardest.
Auto lifts installed: the right build-out sequence
Our recommended sequence for a new EV specialty bay: One, pick the lift model based on vehicle mix and capacity. Two, verify concrete meets the spec, and pour or upgrade if it does not (allow 28-day cure before install). Three, run the electrical to the lift powerpack location — 220V single-phase or three-phase depending on your model. Four, verify ceiling clearance and identify any overhead obstacles (light fixtures, sprinkler heads, HVAC ducts) that need to move. Five, prep the bay for install day — clear space around the anchor pattern, have an outlet ready for our tools. Six, install day: we handle the rest. Seven, commissioning walkthrough with the shop crew before we sign off. That is the sequence that gets EV shops open on schedule. Skipping steps, especially the concrete cure and the electrical spec, is where projects slip. When you are getting auto lifts installed in a build-out that also involves battery service equipment, welding stations, and diagnostic setups, sequencing matters even more.
CV axle and half-shaft replacement: why 2-post is still king
CV axle and half-shaft work on modern electrics — Model 3 half-shafts, Bolt CV joints, Leaf half-shafts, Ioniq drivetrains — is fundamentally the same job as on an ICE front-drive: wheel off, axle nut off, control arm freed, axle out. The lift needs wheels-free access and enough underside clearance to swing the axle out. A commercial 2-post at 12K capacity handles all of it. A 4-post with a rolling bridge jack works too but adds steps. Scissor lifts are not well-suited for this work — clearance under the vehicle is limited. That is why 2-post remains the workhorse in an EV shop just as in an ICE shop. When we have auto lifts installed for an EV specialty bay, it is almost always a 12K commercial 2-post with either symmetric or asymmetric arms, matched to the primary model mix. The one adaptation we would suggest for EV work specifically: post the lift-point diagrams for every model you regularly service on the wall behind the lift, and require every tech to check before positioning arms.
Common mistakes we see in EV specialty shops
Three mistakes, ranked by frequency. One: undersizing capacity. Shops buy a 10K assuming their fleet is mostly small electrics, then find out three years later they are servicing full-size electric trucks. Buy 12K unless your ceiling is absolutely against you. Two: skipping the arm-restraint inspection. EV batteries mean lift-point mistakes are more expensive to make; a slipping arm can crack a battery case. Keep restraints in top shape, inspected monthly. Three: not documenting lift points on the wall. EV lift points are model-specific, non-obvious, and change generation to generation. Post them. Photograph the shop manual page and hang it behind the lift. Honorable mention: assuming battery service requires a mid-rise or scissor. It does not — battery drops happen with a 2-post at working height and a rolling battery table underneath. Once you have auto lifts installed correctly, the EV-specific adaptations are procedural, not equipment-driven.
What Des Moines EV specialty shops actually order
The pattern we have seen from Des Moines metro EV shops opening bays in the past two years: a single 12K commercial 2-post from Rotary or Challenger, three-phase where the shop’s panel supports it, asymmetric arm geometry for door clearance on modern sedans and SUVs, low-profile arm option ordered. That is the ninety-percent case. Some shops add a 4-post storage lift in a back bay for long-term customer holds. Ceiling clearance in most Des Moines metro shops is 12 to 14 feet; adequate for the standard commercial 2-post. If you are planning an EV specialty build-out in the metro and want quotes on getting auto lifts installed, call us at 800-674-9302. Related: EV lift-point guide, electric truck lift capacity requirements.
Our Clients Include: