Invest Now or In Five Years Do Something Else

Prepare today for a successful tomorrow. A decade-on revisit of an argument that turned out to be right.

The world around us moves quickly, and it has been this way forever. When Audi announced the all-new aluminum A8 in 1994, almost no one in the collision repair business invested seriously in aluminum tooling or training. Over the following twenty years, most European manufacturers added two to three aluminum-intensive or hybrid-construction vehicles to their lineups, and many shops still concluded the investment was not worth it because the average facility would never see those cars. We used to agree with that view ourselves.

In 2014, Ford announced that the 2015 F-150 would be built with an aluminum monocoque body over a newly advanced steel frame, and the industry's calculus shifted overnight. Cadillac followed shortly after with the 2016 CT6, a hybrid-construction steel and aluminum monocoque. Ten years ago in this publication, we argued that the steel-to-aluminum ratio in the fleet was approaching one to one and that any shop without a credible plan for aluminum, mixed-material structures, and OEM certified repair programs should plan on selling the business.

We were not wrong, but the story did not stop there. The materials story converged with an electrification story, an ADAS story, and a certified-program story, and the gap between shops that invested and shops that did not has widened, not narrowed. This article revisits the argument for 2026 and updates the categories that determine which decision a shop should be making this year.

What Happened Between 2016 and 2026

Three things happened broadly as we predicted, and one thing happened faster than we expected.

The aluminum and mixed-material wave broadened as forecast. Ford and GM each shipped multiple aluminum-intensive and hybrid-construction platforms. Chrysler/Stellantis brought the Ram 1500 into aluminum-intensive territory. Almost every European premium product is now mixed-material, and the exotic segment routinely combines steel, aluminum, magnesium, carbon fiber, and structural adhesive in a single body.

The CAFE and emissions regulatory pressure converted itself into electrification rather than into 53-mpg internal-combustion vehicles. Battery-electric vehicles are now a meaningful share of new sales in every premium and most mainstream segments. The Tesla Model Y, Ford F-150 Lightning, Rivian R1T and R1S, Lucid Air, Cadillac Lyriq, Hyundai Ioniq 5 and 6, and the VW Group MEB platform all entered the collision-repair landscape, each with structural battery enclosures, high-voltage isolation requirements, and OEM-specific repair procedures that bear little resemblance to ICE collision work.

OEM Certified Collision Repair Programs proliferated as expected. Most major manufacturers now operate a formal CCRF program with documented equipment, training, and procedure requirements, and most premium and exotic OEMs restrict structural parts to the certified network. Where we projected that 80 to 90 percent of OEMs would have a certified program by 2020, that threshold has effectively been reached, and the equipment and training requirements have continued to climb.

The thing that moved faster than we predicted: Advanced Driver Assistance Systems. In 2016 we treated ADAS as a "watch this space" item. In 2026 it is the dominant cost and complexity driver in many collision repairs, demanding pre- and post-repair scanning, static and dynamic calibration, and OEM-documented procedures for virtually every front-end, glass, suspension, or wheel-alignment event.

Which Category Fits You Best (2026 Edition)

The categorization framework we used in 2016 still holds. Only the materials, the model years, and the investment thresholds have changed.

Restoration only, rural area (newest car is ten to fifteen years old), commercial fleet only, detail and bumpers only. You probably do not need to invest in new aluminum or EV tooling or training in the short term. Even so, basic aluminum outer-panel cosmetic capability is increasingly worth having, because aluminum hoods, decklids, and fenders have spread well into older mainstream model years.

Small independent shop in a rural area (newest vehicle is seven to ten years old), or in a metropolitan area servicing primarily older vehicles (three to ten years old). You may not need to invest aggressively this year, but you should plan for aluminum cosmetic repair tooling and training within twenty-four months, and you should begin to map a path to either an EV-capable workflow or a clear referral relationship with a shop that has one.

Suburban or regional facility (vehicles one to ten years old), DRP or non-DRP, non-European/non-exotic dealer collision center. You should already be invested in the Ford F-150 (steel and Lightning) program and serious about at least one EV-capable certification. The original projection that the Detroit three would each ship multiple aluminum-intensive and hybrid-construction vehicles within four years has been borne out. Today the relevant question is whether you can produce a defensible repair on an F-150 Lightning, a Silverado EV, or a Ram 1500 REV, not whether the customer might one day bring one in.

All makes and models with meaningful volume of premium, luxury, and exotic vehicles. You are presumably already invested in aluminum structural repair, well into structural adhesive bonding, and either certified or in process for carbon-fiber-equipped exotics. The current frontier is twofold: high-voltage EV structural repair, and ADAS calibration capacity that does not depend on a sublet partner with a multi-week backlog. Investment thresholds for premium European or exotic CCRF programs now commonly exceed $300,000 in equipment alone, with $40,000 to $80,000 of incremental tooling and training for each additional brand.

What the Investment Actually Buys

The question is no longer "Will I see these vehicles?" The fleet has already shifted. The relevant questions in 2026 are these:

• Do you have the tooling and training to perform a defensible structural repair on a mixed-material vehicle?
• Can you isolate, depower, inspect, and re-energize a high-voltage battery pack to OEM procedure, or do you have a documented sublet relationship that can?
• Can you perform pre- and post-repair scanning and the static and dynamic ADAS calibrations your repair plan requires, in-house or on a sublet schedule that supports your cycle time?
• Do you have a written process for consulting and documenting OEM repair procedures on every repair?

A facility that cannot answer yes to all four of these questions is not undertooled by 2016 standards; it is undertooled by 2026 standards. The cost of not being able to answer yes shows up as cycle-time disadvantage, supplement friction, exposure on post-repair inspection, and, increasingly, exposure in litigation.

We can no longer look at a repair and say, "I love the challenge of figuring things out." The procedure is the procedure. The OEM has published it. The customer is paying for it to be followed.

Closing

If this article has not yet brought to your attention the reasons to invest, look at the last four years of vehicle introductions. Look at the last four years of post-repair inspection findings published by the OEMs, by I-CAR, and by the certified networks. Look at the last four years of litigation outcomes against shops that did not follow OEM procedures.

You can invest now, or in five years you can do something else. The argument we made in 2016 has aged into a fact pattern in 2026. Feel free to contact us with questions.