Warp Ceiling Fan

The main idea behind WARP was to challenge what people expect a ceiling fan to be.

We are used to seeing ceiling fans as purely functional appliances, where the priority is simply to move air and the design is expected to disappear into the ceiling. I wanted to approach it differently—to create a fan where engineering and aesthetics could exist as one.

My inspiration came from aviation, particularly the precision of aircraft wings and propellers. I have always been fascinated by how every curve, angle and surface on an aircraft has a purpose. That idea became the starting point for WARP: could we use aerodynamic principles to create a form that is not only efficient, but also visually expressive?

The warped, interlocking blades became the defining element. The form suggests movement even when the fan is stationary, while the structure is designed around airflow, stability and reduced vibration.

For me, WARP is about making engineering visible through design. Rather than hiding the mechanics, I wanted the engineering logic to become the character of the product.

WARP is my attempt to turn the movement of air into a piece of design.

My main focus was to find a balance between performance and expression.

I wanted WARP to move air efficiently and quietly, but I didn't want the engineering to dictate a conventional ceiling fan shape. Instead, I wanted the engineering itself to become the starting point for a new form.

One of the things I wanted to achieve was to reduce the visual and physical complexity of the blade connection. This led me to explore the interlocking blade structure, which became both a structural solution and the defining visual identity of WARP.

I also wanted the fan to have a sense of movement even when it is switched off. The warped geometry gives the blades a dynamic quality, while the aerodynamic profiles are shaped around how air actually moves.

Ultimately, I wanted to create a ceiling fan that could perform as a serious piece of engineering, but also have the presence of a sculptural object.

The goal was not to make a fan that looks different. It was to rethink how a fan could be designed from the inside out.

For me, WARP is not a finished idea. The award is an important recognition, but I see it more as a starting point for where the design can go next.

I want to continue developing the ideas behind WARP, particularly around airflow, aerodynamics and how we experience air in a space. There is still a lot we can learn about how air should move—not simply how much air a fan can produce.

I also see opportunities to apply the design principles developed through WARP to other products and different scales. The interlocking structure, aerodynamic thinking and relationship between engineering and form could evolve in ways that go beyond the original ceiling fan.

Most importantly, I want WARP to help change the conversation around airflow. We normally think about light, sound and architecture when we talk about the atmosphere of a space, but air is equally important.

So the future of WARP is not just about making the next version of the fan. It is about continuing to explore how we can design with air.

The inspiration for Warp began with my fascination for aviation engineering, particularly the sculptural forms found in aircraft engines, turbine housings, and three-spoke propeller systems. I was drawn to how these components are shaped entirely by performance requirements, yet possess a natural beauty born from purpose.Rather than designing a conventional ceiling fan with blades attached to a central motor, I explored how the blades could visually flow into one another, creating a continuous sense of movement. Through multiple iterations, the blade geometry evolved into a high-curvature form that appears to twist around a shared center, much like the dynamic motion suggested by rotating propellers. This approach allowed the fan to express motion even when stationary.The contoured blade profile was further refined to balance aerodynamic efficiency, structural stability, and visual lightness. The result is a fan that pays homage to aviation while transforming airflow into a sculptural centerpiece—where engineering performance and artistic expression become inseparable.

For me, the challenge was never choosing between aesthetics and performance—it was ensuring that one emerged from the other. Many products treat styling as something applied after the engineering is complete. With Warp, the visual identity was developed alongside the aerodynamic principles from the very beginning.The fan’s distinctive warped geometry is not purely decorative. The blade curvature, angle, and surface transitions were carefully considered to guide airflow more efficiently while reducing turbulence. Rather than relying on flat blade assemblies, the contoured form helps maintain airflow consistency across the blade span, contributing to a broader and more refined distribution of air.Throughout the development process, every design decision was evaluated against both visual and functional criteria. If a feature enhanced appearance but compromised performance, it was reconsidered. Conversely, engineering solutions were refined until they contributed to the overall sculptural language of the product.I believe the most enduring designs are those where function and form become inseparable. Warp demonstrates that aerodynamic performance and distinctive aesthetics do not have to compete with one another. When approached holistically, engineering can become beauty, and beauty can become a direct expression of performance.

One of the key inspirations behind Warp’s interlocking structure came from a fundamental engineering principle: the triangle is widely regarded as the strongest geometric shape for distributing loads and maintaining structural stability. This led us to explore how a triangular relationship between the blades could become both a structural and visual solution.Rather than relying on conventional blade holders and multiple connecting components, the blades were designed to interlock toward a shared center, forming a unified triangular assembly. This approach reduces the number of connecting parts, minimizing potential sources of vibration and mechanical tolerance variations while improving overall rigidity.From an aerodynamic perspective, the simplified structure reduces airflow disruption around the hub area, allowing smoother airflow transitions and quieter operation. The interlocking blades also create a more direct load path, improving stability while reducing drag and mechanical complexity.The result is a solution where structure and aerodynamics work together. The interlocking configuration is not merely a visual statement—it is an engineering approach that improves stability, minimizes vibration and noise, and reinforces the product’s core philosophy: achieving more with less through thoughtful integration of form and function.