Skip to main content

Here’s why the Tesla Cybertruck has its crazy look

Elon Musk revealed the Cybertruck last night, saying it looks like nothing else on the market. That’s true, but the Cybertruck shares several key features with an unlikely pickup — the first-generation Honda Ridgeline.

Both the Cybertruck and Honda Ridgeline are built differently from standard pickups. They employ a unibody design, much like what’s used in most passenger vehicles. Instead of a body sitting on a frame, the Cybertruck and Ridgeline are built around what is essentially a metal cage.

Because of the unibody pickup design, the vehicle has to employ a key design element to enable high-capacity towing: A sail pillar.

Most often, a vehicle’s towing capacity is limited by body design rather than engine strength. Towing places a lot of stress on the vehicle’s frame. Want to pull more? Make a beefier frame under the truck. But with the unibody Tesla Cybertruck, to increase the towing capacity, it had to use as big of a sail pillar as possible, explaining the unconventional design. For Tesla, a unibody truck makes sense. It doesn’t want a large, bulk frame under the body. It wants batteries under the vehicle.

A vehicle naturally wants to twist. Think of a wringing out a washcloth. In a body-on-frame design, the engine rests on a large frame, which absorbs a lot of the stresses. In a unibody design, vertical supports help and are employed throughout, starting with an A-pillar by the windshield and ending with a D pillar in the rear window of SUVs.

With a body-on-frame design, like what’s used in most pickups, the force from a trailer rests on the frame. Most of the energy is absorbed in the structure located under the body of the truck. The truck’s cab is decoupled from the bed, allowing the cab and bed to move relative to one another and better compensate for the stress on the frame.

In a unibody design, like in the Cybertruck, Ridgeline, or most SUVs, the body is subjected to the same forces but has to use the body to prevent twisting. The buttress-like sail pillar helps absorb the energy and prevent the truck from twisting.

Unibody SUVs have D pillars — the vertical supports at the rear of the vehicle — where pickups do not. This D pillar is needed to prevent the unibody from twisting and flexing when under load. But without the D pillar in a unibody pickup, a sail pillar connects the C pillar to the rear of the truck, achieving a similar result.

The first generation Honda Ridgeline had a modest sail pillar, but Honda was able to ditch the feature for the second generation by reinforcing critical points throughout the unibody.

Honda described the redesign like this.

The rear frame structure of the 2017 Ridgeline is vitally important to the overall structural rigidity of the body, to collision safety performance and to the Ridgeline’s hauling and towing capability. Utilizing fully boxed frame members for the body sides and rear tailgate frame, the truss-style rear inner construction contributes to the new Ridgeline’s more conventional three-box design profile—allowing for the elimination of the buttress-style body structure in the forward portion of the upper bed on the previous model—while contributing to a 28-percent gain in torsional rigidity versus the previous model. Also, the U-shaped rear frame member serves as a highly rigid mounting structure for the rear tailgate, allowing for a highly precise tailgate fit.

The Chevrolet Avalanche also used a sail pillar to compensate for the lack of D pillar. To make the Avalanche, Chevy took a full-size Suburban SUV and cut off the rear quarter.

It’s unclear if Tesla unveiled the final version of the Cybertruck. We still have significant questions. And if it’s not the final design, there’s a chance Tesla will be able to use some of Honda’s tricks to reduce the flying buttresses and produce a more conventional pickup design.



from TechCrunch https://ift.tt/37ut6zt
via IFTTT

Comments

Popular posts from this blog

The Silent Revolution of On-Device AI: Why the Cloud Is No Longer King

Introduction For years, artificial intelligence has meant one thing: the cloud. Whether you’re asking ChatGPT a question, editing a photo with AI tools, or getting recommendations on Netflix — those decisions happen on distant servers, not your device. But that’s changing. Thanks to major advances in silicon, model compression, and memory architecture, AI is quietly migrating from giant data centres to the palm of your hand. Your phone, your laptop, your smartwatch — all are becoming AI engines in their own right. It’s a shift that redefines not just how AI works, but who controls it, how private it is, and what it can do for you. This article explores the rise of on-device AI — how it works, why it matters, and why the cloud’s days as the centre of the AI universe might be numbered. What Is On-Device AI? On-device AI refers to machine learning models that run locally on your smartphone, tablet, laptop, or edge device — without needing constant access to the cloud. In practi...

Apple’s AI Push: Everything We Know About Apple Intelligence So Far

Apple’s WWDC 2025 confirmed what many suspected: Apple is finally making a serious leap into artificial intelligence. Dubbed “Apple Intelligence,” the suite of AI-powered tools, enhancements, and integrations marks the company’s biggest software evolution in a decade. But unlike competitors racing to plug AI into everything, Apple is taking a slower, more deliberate approach — one rooted in privacy, on-device processing, and ecosystem synergy. If you’re wondering what Apple Intelligence actually is, how it works, and what it means for your iPhone, iPad, or Mac, you’re in the right place. This article breaks it all down.   What Is Apple Intelligence? Let’s get the terminology clear first. Apple Intelligence isn’t a product — it’s a platform. It’s not just a chatbot. It’s a system-wide integration of generative AI, machine learning, and personal context awareness, embedded across Apple’s OS platforms. Think of it as a foundational AI layer stitched into iOS 18, iPadOS 18, and m...

Max Q: Anomalous

Hello and welcome back to Max Q! Last week wasn’t the most successful for spaceflight missions. We’ll get into that a bit more below. In this issue: First up, a botched launch from Virgin Orbit… …followed by one from ABL Space Systems News from Rocket Lab, World View and more Virgin Orbit’s botched launch highlights shaky financial future After Virgin Orbit’s launch failure last Monday, during which the mission experienced an  “anomaly” that prevented the rocket from reaching orbit, I went back over the company’s financials — and things aren’t looking good. For Virgin Orbit, this year has likely been completely turned on its head. The company was aiming for three launches this year, but everything will remain grounded until the cause of the anomaly has been identified and resolved. It’s unclear how long that will take, but likely at least three months. Add this delay to Virgin’s dwindling cash reserves and you have a foundation that’s suddenly much shakier than before. ...