For three days in late September, two Lexus cars sat in Chelsea Industrial at 545 W. 28th St., New York, looking like a rendering error. In MSCHF’s Circle Car, a Lexus RZ 450e is bent until its nose meets its tail, in a loop that drives forever. In Twisted Car, an RX 450h+ is wrung along its length like a towel. The Brooklyn art collective calls them “Form Cars”, in contrast to concept cars: the car becomes material, not a picture of a future vehicle. MOTOMORPHOSIS opened during Armory Week, the Lexus pressroom announced it on 22 September 2026, and it closed on Saturday the 26th.

The glitch is the point. As Rain Noe reports in Core77, MSCHF describes the forms as applying the vernacular of digital-native operations to physical objects. Those operations are the twist, the stretch and the bend, plus the animation smear frame, the single stretched drawing that tells your eye something moved fast. On screen, the glitch is the image failing. In Chelsea it is a built state, and someone had to make it hold.

Who wrote the operator

The operators behind the piece have an author nobody mentions. In 1984 Alan H. Barr, then a researcher in computer graphics, published “Global and Local Deformations of Solid Primitives” at SIGGRAPH. The paper defined tapering, twisting and bending as transformations you can apply to any solid. Every twist slider and bend modifier in every modelling package since then descends from that paper, including the one in your Grasshopper canvas. On a screen it costs one click. Barr’s paper made that cheapness possible.

Building the shape is still expensive. Kevin Wiesner, MSCHF’s Chief Creative Officer, described the build to Highsnobiety: “Starting with a steel armature, we then join thousands of individual pieces like LEGOs to form the skin.” According to the same interview, the finishing, paint and overcoat follow ordinary auto-body practice, Bondo included. Wiesner named the hardest part as joining these processes at scale and making the finished sculptures transportable for installation.

←TODAY: A twist is one component on a canvas, while on site it becomes an armature, thousands of panels, a seam strategy and a truck route.
→3012: In Zurich-3012, the deformation operator is priced in joints before it is allowed on screen.
Fulcrum: The glitch only holds when the digital gesture and its physical seam count are drawn on the same sheet.

The system, drawn as a pipeline

Read Wiesner’s answer as a systems diagram and you get the freeform facade, step by step:

• Input: a smooth deformation, continuous on screen.
• Discretisation: a rigid armature, then a skin cut into pieces small enough to follow the curvature.
• Bottleneck: the joints. Every panel edge is a seam to align, fill and finish.
• Exit constraint: transport. The object has to leave the workshop in parts and become whole again at the venue.

Any Swiss facade consultant knows this chain. It holds for a doubly curved envelope on a Zürich school, a temporary pavilion that has to fit through a Basel courtyard gate, or a timber shell that leaves a Bernese workshop on a trailer under an oversized-load permit. The trade-off is plain: every degree of twist you keep is paid for in panel count, and every extra panel is another joint to build, check and maintain.

The brand deserves a word as well. In the pressroom text, Lexus marketing frames the show as a question about what electricity can power in the imagination. In the same release, the company notes that the vehicles were modified with non-Lexus parts, may void the warranty, may affect safety and may not be street legal. That is the right disclaimer, and it shows the trade. A global carmaker borrows a small collective’s craft to make electrification feel like art. MSCHF’s welders and body-shop finishers did the hard part.

Atelier: Offices that use AI-assisted form-finding can now produce twisted and looped massing faster than any fabricator can quote it, so the gap Wiesner describes lands on the design team first. The Monday move: add a “panel and seam count” line to your design-review template, and require it on any surface that contains a twist or bend before the surface goes to the client.

Hack: Price a twist in panels before you commit the slider. When a flat strip is twisted along its length, each panel quad warps out of plane. Splitting the strip into more panels reduces the warp, but every extra panel adds two more seams. Run this in a GhPython component or any Python shell:

import math
def corner_lift(width_mm, twist_deg, n_panels):
    a = math.radians(twist_deg) / n_panels      # twist carried by each panel
    return (width_mm / 2) * math.sin(a)         # approx. out-of-plane corner lift
for n in (4, 16, 64): print(n, "panels:", round(corner_lift(1800, 90, n)), "mm")

For an illustrative 1.8 m band twisted 90°, four panels warp by about 344 mm each and sixty-four panels by about 22 mm. Set your fabricator’s flatness tolerance against that curve, and the panel count follows from it.

From where I sit in the late 2070s, the lesson that lasted was not the twisted car. It was the habit of drawing the joint before the gesture. The PAZ Grasshopper↔Archicad Library exists so that the panel logic follows the surface into the BIM model rather than getting lost between the two tools. Open your current freeform study today and count its seams before you add another degree.

Sources & Further Reading

• Primary: Lexus Pressroom — MOTOMORPHOSIS announcement
• Reinforcing: Core77 — Motomorphosis: MSCHF’s Radically Modified Lexuses