PIX Beastie 双座电动车 by PIX Moving is a highly esteemed winner of the very prestigious 2025 A' Design Award 金奖 in 车辆、出行与交通设计 Competition Category.

金车辆· 2025

PIX Beastie 双座电动车

by PIX Moving

Client: PIX Moving

A' Design Award 金奖 Winner in 车辆 Category

137,897

Verified Award Winner

Verify Award Status for #171769

Visit Site View at A' Design Award Press Release Award Badge

Colors

The Design

About PIX Beastie 双座电动车

PIX Beastie 是一款专为高密度城市出行打造的双座电动车。其紧凑的造型灵感源自恐龙头骨的骨骼结构。车身与底盘完全采用工业级金属3D打印制造，并以生成式设计与结构优化为指导。该工艺得以实现轻量而坚固的复杂有机几何形态。车尾的LED灯可显示自选的图案或文字。仪表台采用模块化设计，内饰可自由调整与装饰。同时支持家用充电。

The Recognition

About the A' Design Award 金奖

PIX Beastie 双座电动车是 A' Design Award 金奖得主，这是授予一流、绝妙而杰出设计的极为崇高的认可。金奖得主是极具创新、极富远见且璀璨夺目的创作，反映出其设计师的天才、智慧与才干。预计PIX Beastie 双座电动车将成为一项备受赞誉、引领潮流、气势恢宏的发明，带来前所未有的价值。这件赢得 A' Design Award 金奖的设计是一个壮观而受人敬重的项目，极大地造福并拓展艺术、科学、设计和技术的边界。PIX Beastie 双座电动车激起强烈的渴望，唤起激情，鼓励创造力，令我们着迷。

Behind the Design

Press Kit

Credits, team members and technical details provided by the designer.

Unique Properties: Redefines the visual and functional aspects of urban mobility. Inspired by the biomechanical structure of a dinosaur skull, its design leverages AI powered generative design and metal 3D printing to achieve organic, streamlined skeletal lines and complex geometric forms unattainable through traditional manufacturing. The design blends futuristic minimalism with retro nostalgia. Not only that, it also offers a wide range of customizable features. For instance, the LED lights at the rear can display any pattern or text according to the preference of the user, allowing for a personalized touch. The interior dashboard is designed with modularity in mind, giving users the freedom to decorate and adjust it to their preferences, creating a truly unique driving experience.
Dimensions & Packaging: Width 2503mm
Depth 1460mm
Height 1603mm
Wheelbase 1900mm
Track width 1286mm
Tags: PIX Beastie, PIX RoboEV, Electric Vehicle, Metal 3D Printing, Biomimetic Design, Mini Car, PIX Moving, Micro Mobility, AI-Driven Design
Production Technology: It combines generative design with industrial metal 3D printing, leveraging AI powered simulation design and structural topology optimization to maximize material performance and utilization, achieving both lightweight construction and enhanced strength. The simulation design helps identify weak points in the structure and optimize them, ensuring the vehicle maintains both aesthetics and functionality while achieving high strength and material efficiency. The body and chassis are entirely made using 3D printing technology, providing the vehicle with a unique structure and flexibility, breaking the limitations of traditional manufacturing.
Design Challenge: The biggest challenge was integrating the biomimetic design with practical automotive manufacturing. Our goal was to create a body structure that is both aesthetic, efficient, and durable. However, the complex organic shapes and unconventional angles posed challenges in 3D printing. We overcame these challenges by using algorithms to adjust material distribution and printing angles, ensuring the design remained visually appealing, structurally strong, and optimized for the best printing results and stability.
Research: Our research focused on designing an innovative urban mobility solution. The goal was to create a lightweight, efficient, and environmentally friendly electric vehicle using advanced technologies. We employed generative design and AI powered simulations to optimize structure and performance. Data was collected through prototyping and testing, focusing on material efficiency and user experience. Key participants included automotive engineers, industrial designers, and AI experts. Results showed significant improvements in strength, material usage, and energy efficiency, impacting automotive design and urban mobility.
Inspiration: Observing that most vehicles today are monotonous, we envisioned a highly personalized mode of transportation. Inspired by the biomechanical efficiency of dinosaur skulls, we created a vehicle that is not only durable and efficient but also stands out on the street, symbolizing both identity and attitude. Recognizing the challenges of narrow streets and limited parking in many European cities, we aimed to design a compact, efficient vehicle to help people navigate urban environments with ease.

Through AI powered generative design and industrial metal 3D printing, we achieved complex organic geometries that seamlessly combine functionality, aesthetics, and innovation, resulting in a design unattainable through traditional methods.
Project Duration: The project started in June 2023 in China and completed the development phase in June 2024. The prototype was first exhibited at the Okinawa Expo in Japan in November 2024. It will be showcased next at the IAA Mobility exhibition in Germany in September 2025.
Operation Flow: It is a micro electric vehicle designed for urban travel, offering simple operation similar to a regular car. Its main features include lightweight construction and high efficiency, providing a smooth and comfortable driving experience, especially for navigating narrow city streets with ease. It comes with an AI voice assistant that offers driving support and emotional companionship through voice commands. Additionally, it supports home charging, delivering superior performance and energy efficiency compared to traditional cars, ensuring an exceptional user experience.
Team Members: Angelo Yu
Panda Yang
Jiangshan Li
Shikang Wang
Chang Zhou
Artem Smirnov