Bronze Home Appliances Design · 2026
Warp Ceiling Fan
by Aaron Liang
- A' Design Award 2026 Bronze Winner in Home Appliances Design
- Awarded April 15, 2026
- CLIENT: Aerahaus
- Estimated Number of Design Views: 9,761
- Verification code D2317F2814 · Verify this award
About Warp Ceiling Fan
In a market saturated with convention, the Warp Ceiling Fan emerges as a bold departure from traditional ceiling fan aesthetics. Its fluid, infinitely warped form turns any ceiling into a canvas of dynamic geometry, instantly distinguishing itself from the flat planed blades and standard body designs that have long dominated the category. But the Warp isn’t just about looks. Despite its avantgarde appearance, it offers the convenience of a three step installation process, bringing futuristic design within reach for everyday spaces.
AARON LIANG's Warp Ceiling Fan exemplifies a contemporary approach to residential mechanical systems wherein functional necessity receives sculptural expression through material refinement and formal intelligence. The three-blade configuration departs from conventional symmetrical arrangements through subtle variations in blade curvature and torsion, each wooden element twisting along its axis to create organic compound forms that suggest wind-shaped natural phenomena translated into manufactured precision. The choice of rich wood tones for the rotating elements establishes warmth within the typically utilitarian ceiling fan typology, the material selection evoking traditions of fine furniture craftsmanship and architectural millwork rather than purely industrial manufacturing paradigms. The spherical motor housing demonstrates restraint through its matte charcoal finish, the near-black surface receding visually to allow the animated blade forms primary attention while providing necessary structural anchor and chromatic grounding. This compositional relationship between the dark static hub and the lighter kinetic elements creates dynamic visual interest even in the fixture's stationary state, suggesting rotational potential and mechanical grace. The installation context within a carefully curated residential interior reveals the designer's attention to environmental integration, the ceiling fan functioning simultaneously as climate control apparatus and spatial sculpture, its presence enhancing rather than compromising the room's aesthetic coherence. The wood grain striations visible along each blade surface suggest solid timber construction or high-quality veneer application, the material transparency communicating craft values and natural resource respect within contemporary sustainable design discourse. The fan's scale appears calibrated to the room proportions, neither dominating the space nor disappearing into insignificance, achieving balanced presence that serves both functional air circulation requirements and visual composition needs. The broader interior setting demonstrates complementary design sensibility through its restrained palette, textural variety, and material honesty, the furnishings and architectural elements sharing the ceiling fan's commitment to understated sophistication and purposeful form. One might consider how mechanical objects designed for daily utility can transcend purely functional categorization through thoughtful formal development, material selection, and contextual awareness, transforming routine domestic infrastructure into opportunities for aesthetic enrichment and spatial poetry.
Press Kit
- Unique Properties
- The Warp Ceiling Fan reimagines what a ceiling fixture can be, a striking, infinitely warped silhouette creating an immersive visual experience that is instantly iconic. With its distinctive geometric form, Warp stands in bold contrast to the flat planes and conventional shapes of traditional ceiling fans. With a streamline install process functionality for low ceiling apartment needs beyond aesthetics, Warp integrates wireless smart controls, where innovation moves both air and imagination.
- Dimensions & Packaging
- (W) 1320 mm x 310 mm (H)
- Tags
- Ceiling fan, Minimalist, Balanced, Energy Efficient Fan, Thematic Ceiling Fan, Luxury Home Interior, Designed With Singapore
- Production Technology
- The Warp was developed first to test its airflow enhancing shape Its interlocking blades form a stable triangle eliminating the need for blade holders and reducing vibration and noise Screws are hidden deep in the assembly for a clean look and smoother airflow With a Energy Efficient motor Warp delivers higher airflow than standard fans Its flush design suits low ceilings and the wind shear proof mount ensures wobble free quiet operation
- Design Challenge
- The hardest part of the research activity was refining the initial design sketches to make it practical for generating more airflow in a lightweight assembly.
- Project Duration
- The project started in December 2023 in Singapore and finished in November 2024 in Singapore.
- Operation Flow
- The Warp ceiling fan offers six speed control with dual direction airflow clockwise and counterclockwise via remote For advanced applications it supports variable voltage control for integration with commercial and building management systems It also comes with voice control ready and smart control functions for use with Google Home Alexa Smart Life application and more
- Research
- This type of research is about the application of aerodynamic principles to generate more airflow on a ceiling device while maintaining its own unique design identity that can be identified instantly.
The methodology involved studying conventional flat planed ceiling fan assembly and experimenting to reduce the excess parts count, weight, that contributes towards vibration, and wind noise to occur reducing overall efficiency.
The research objectives revolved around creating an easy to assemble design that is lightweight,yet functional and unique by applying the study or aerodynamics to reduce wind drag, and harness a higher airflow rate in comparision to traditional ceiling fans. - Inspiration
- Inspired by the concave form of airline engines and the dynamic flow of a 3-spoke jet propeller, the Warp DC Smart Energy Efficient Ceiling Fan was designed to leave a bold impression. Its high-curvature, contoured shape reduces drag and boosts efficiency, blending aerodynamic performance with a striking, unconventional design.
Colors of Warp Ceiling Fan
Design Interview about 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.
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.
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.
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.
WARP took about a year to develop, from the initial concept in December 2023 to the final design in November 2024.
But the actual design process was not simply a matter of drawing the final shape. The early stage was about exploring how far we could push the form while still maintaining the performance expected from a ceiling fan.
There were many rounds of sketches, 3D development, engineering studies and physical testing. We had to constantly balance the visual expression with airflow, weight, structural strength, balance, vibration, noise and manufacturing.
Some of the early concepts were much more extreme, but they helped us understand where the boundaries were. The final WARP came from gradually refining those ideas until the form and engineering started to feel like one solution.
So although the development took around twelve months, the thinking behind it continues to influence how I approach the products we design today.
But the actual design process was not simply a matter of drawing the final shape. The early stage was about exploring how far we could push the form while still maintaining the performance expected from a ceiling fan.
There were many rounds of sketches, 3D development, engineering studies and physical testing. We had to constantly balance the visual expression with airflow, weight, structural strength, balance, vibration, noise and manufacturing.
Some of the early concepts were much more extreme, but they helped us understand where the boundaries were. The final WARP came from gradually refining those ideas until the form and engineering started to feel like one solution.
So although the development took around twelve months, the thinking behind it continues to influence how I approach the products we design today.
WARP was not commissioned as a specific design brief. It started from my own curiosity and a question I kept coming back to: why does a ceiling fan have to look like a ceiling fan?
Most ceiling fans are designed primarily around function, and I felt there was an opportunity to approach the category differently. I wanted to explore whether the engineering and aerodynamic principles behind a fan could actually become the inspiration for its form.
My interest in aviation played a big part in that. I have always been fascinated by aircraft and propellers, where the shape of every component is closely connected to performance. That led me to explore what would happen if we applied the same thinking to a ceiling fan.
The warped blade geometry and interlocking structure developed from that exploration. It wasn't about creating an unusual shape for the sake of being different. I wanted the form to have a reason—to improve the structure, support airflow and reduce unnecessary components, while giving the fan a completely different visual identity.
So WARP really began as an experiment: could we take something as familiar as a ceiling fan and rethink it from first principles?
Most ceiling fans are designed primarily around function, and I felt there was an opportunity to approach the category differently. I wanted to explore whether the engineering and aerodynamic principles behind a fan could actually become the inspiration for its form.
My interest in aviation played a big part in that. I have always been fascinated by aircraft and propellers, where the shape of every component is closely connected to performance. That led me to explore what would happen if we applied the same thinking to a ceiling fan.
The warped blade geometry and interlocking structure developed from that exploration. It wasn't about creating an unusual shape for the sake of being different. I wanted the form to have a reason—to improve the structure, support airflow and reduce unnecessary components, while giving the fan a completely different visual identity.
So WARP really began as an experiment: could we take something as familiar as a ceiling fan and rethink it from first principles?
WARP is currently being developed and commercialised by BY DECOR SINGAPORE PTE LTD, which is closely involved in the design, engineering and production of the product.
From the beginning, I have been personally involved in developing the design and working through the engineering and manufacturing challenges to make the concept a real, commercially viable product.
At the same time, we are open to licensing WARP to the right partners. Our ambition is to allow the design to reach more markets and people across the globe, while ensuring that its original design philosophy, quality and engineering standards are maintained.
For me, a good design should not be limited by geography. If the right partnership can help WARP reach more people while preserving the integrity of the design, I would be very open to exploring it.
I would rather see a good design travel around the world than have it stay in one place.
From the beginning, I have been personally involved in developing the design and working through the engineering and manufacturing challenges to make the concept a real, commercially viable product.
At the same time, we are open to licensing WARP to the right partners. Our ambition is to allow the design to reach more markets and people across the globe, while ensuring that its original design philosophy, quality and engineering standards are maintained.
For me, a good design should not be limited by geography. If the right partnership can help WARP reach more people while preserving the integrity of the design, I would be very open to exploring it.
I would rather see a good design travel around the world than have it stay in one place.
What drew me to this particular design was the opportunity to make something functional feel more alive.
I have always been fascinated by movement, especially the relationship between form and motion. A ceiling fan is interesting because it is constantly moving, yet when it is switched off, it becomes a static object. I wanted to explore that contrast.
My interest in aviation and aerodynamics naturally led me to aircraft wings and propellers. I was drawn to the way their forms are shaped by movement and performance, rather than decoration. That became the foundation for WARP.
I then started exploring how a ceiling fan could express that same sense of movement through its geometry. The warped blades, high blade angle and interlocking structure evolved from that exploration.
What made the project particularly interesting to me was that the visual idea also created engineering questions. How could we make the structure stable? How could we reduce vibration and noise? How could we simplify the connections while maintaining performance?
That process is what made WARP worth pursuing for me. The form wasn't created first and engineered afterwards—the engineering became the reason for the form.
I have always been fascinated by movement, especially the relationship between form and motion. A ceiling fan is interesting because it is constantly moving, yet when it is switched off, it becomes a static object. I wanted to explore that contrast.
My interest in aviation and aerodynamics naturally led me to aircraft wings and propellers. I was drawn to the way their forms are shaped by movement and performance, rather than decoration. That became the foundation for WARP.
I then started exploring how a ceiling fan could express that same sense of movement through its geometry. The warped blades, high blade angle and interlocking structure evolved from that exploration.
What made the project particularly interesting to me was that the visual idea also created engineering questions. How could we make the structure stable? How could we reduce vibration and noise? How could we simplify the connections while maintaining performance?
That process is what made WARP worth pursuing for me. The form wasn't created first and engineered afterwards—the engineering became the reason for the form.
Yes, definitely. WARP was influenced by several things, but the strongest influence came from aviation.
I have always been fascinated by aircraft and propellers, particularly how their forms are dictated by aerodynamics and performance. There is a certain honesty in that approach—every curve, angle and surface has a reason for being there. That way of thinking became an important reference when developing WARP.
I was also influenced by the simplicity and discipline of designers like Dieter Rams. His approach reminded me that good design is not necessarily about adding more. Sometimes the strongest solution comes from removing what is unnecessary and allowing the essential elements to define the product.
Another unexpected influence was engineering itself, particularly the triangle and the principle of triangulation. I have always found the triangle fascinating because of its structural strength and stability. That became part of the thinking behind WARP's interlocking blade architecture.
So rather than copying one particular product or designer, I took inspiration from different disciplines—aviation, industrial design and engineering—and tried to translate those principles into something that felt original to the ceiling fan category.
The biggest influence on WARP was not a particular object, but the idea that form should have a reason.
I have always been fascinated by aircraft and propellers, particularly how their forms are dictated by aerodynamics and performance. There is a certain honesty in that approach—every curve, angle and surface has a reason for being there. That way of thinking became an important reference when developing WARP.
I was also influenced by the simplicity and discipline of designers like Dieter Rams. His approach reminded me that good design is not necessarily about adding more. Sometimes the strongest solution comes from removing what is unnecessary and allowing the essential elements to define the product.
Another unexpected influence was engineering itself, particularly the triangle and the principle of triangulation. I have always found the triangle fascinating because of its structural strength and stability. That became part of the thinking behind WARP's interlocking blade architecture.
So rather than copying one particular product or designer, I took inspiration from different disciplines—aviation, industrial design and engineering—and tried to translate those principles into something that felt original to the ceiling fan category.
The biggest influence on WARP was not a particular object, but the idea that form should have a reason.
WARP is designed for people who see their living or working environment as more than just a functional space.
Our target customers are design-conscious homeowners, architects, interior designers and people who appreciate products with a strong point of view. They are looking for something that performs well, but they also care about how an object contributes to the character of a space.
I think WARP particularly appeals to people who appreciate engineering and understand that good design is not just about appearance. The aerodynamic form, interlocking blade structure and mechanical details give the product a story that goes beyond its visual impact.
At the same time, I don't want WARP to be limited to people who already understand design. One of the things I like about it is that it can attract someone simply because the form catches their attention, and then make them curious about how it works.
Ultimately, I want WARP to appeal to anyone who believes a functional product can also have personality and become part of the architecture around them.
The customer I'm designing for is someone who doesn't want to hide the things they use—they want them to be worth looking at.
Our target customers are design-conscious homeowners, architects, interior designers and people who appreciate products with a strong point of view. They are looking for something that performs well, but they also care about how an object contributes to the character of a space.
I think WARP particularly appeals to people who appreciate engineering and understand that good design is not just about appearance. The aerodynamic form, interlocking blade structure and mechanical details give the product a story that goes beyond its visual impact.
At the same time, I don't want WARP to be limited to people who already understand design. One of the things I like about it is that it can attract someone simply because the form catches their attention, and then make them curious about how it works.
Ultimately, I want WARP to appeal to anyone who believes a functional product can also have personality and become part of the architecture around them.
The customer I'm designing for is someone who doesn't want to hide the things they use—they want them to be worth looking at.
What sets WARP apart is that the form, structure and airflow were developed as one system.
Most ceiling fans start with a conventional motor and blade connection, then the visual design is built around those existing components. With WARP, I wanted to question that approach from the beginning. The interlocking blade architecture became both the structural solution and the defining visual identity of the product.
The three blades are connected through a carefully developed geometry that reduces the need for conventional blade holders and visible connecting hardware. This creates a cleaner structure while helping to improve stability and minimise vibration.
The blade geometry is also highly aerodynamic, with the warped form and blade angle developed around airflow rather than simply visual appearance. The result is a fan that looks dynamic even when it is stationary, but that dynamic form is still rooted in its function.
I think that is the real difference with WARP. It isn't a conventional ceiling fan with an unusual shape placed on top. The unusual shape comes from rethinking how the fan is structured and how it moves air.
That is what gives WARP its identity—and makes the design difficult to separate from the engineering behind it.
Most ceiling fans start with a conventional motor and blade connection, then the visual design is built around those existing components. With WARP, I wanted to question that approach from the beginning. The interlocking blade architecture became both the structural solution and the defining visual identity of the product.
The three blades are connected through a carefully developed geometry that reduces the need for conventional blade holders and visible connecting hardware. This creates a cleaner structure while helping to improve stability and minimise vibration.
The blade geometry is also highly aerodynamic, with the warped form and blade angle developed around airflow rather than simply visual appearance. The result is a fan that looks dynamic even when it is stationary, but that dynamic form is still rooted in its function.
I think that is the real difference with WARP. It isn't a conventional ceiling fan with an unusual shape placed on top. The unusual shape comes from rethinking how the fan is structured and how it moves air.
That is what gives WARP its identity—and makes the design difficult to separate from the engineering behind it.
The name WARP came quite naturally from the form itself.
The blades have a distinctive twisted and curved geometry that appears to transform as it moves through space. I liked the word “WARP” because it suggests a deliberate change in shape, direction and perspective.
A ceiling fan normally has a very familiar visual language. With WARP, I wanted to challenge that expectation and transform it into something more dynamic and sculptural.
There is also a connection to movement. “WARP” suggests speed, airflow and the way movement can change our perception of form. That felt appropriate for a product whose purpose is to create movement in something invisible.
So the name is quite simple. WARP is about transforming the familiar form of a ceiling fan and giving the movement of air a new visual expression.
The blades have a distinctive twisted and curved geometry that appears to transform as it moves through space. I liked the word “WARP” because it suggests a deliberate change in shape, direction and perspective.
A ceiling fan normally has a very familiar visual language. With WARP, I wanted to challenge that expectation and transform it into something more dynamic and sculptural.
There is also a connection to movement. “WARP” suggests speed, airflow and the way movement can change our perception of form. That felt appropriate for a product whose purpose is to create movement in something invisible.
So the name is quite simple. WARP is about transforming the familiar form of a ceiling fan and giving the movement of air a new visual expression.
We used a combination of traditional sketching, 3D modelling, engineering tools and physical prototyping throughout the development of WARP.
I usually start with a simple sketch. For me, sketching is still the fastest way to explore an idea and understand its proportions and movement before getting too technical.
From there, we developed the geometry in 3D CAD, where I could start working more precisely with the blade shape, angles, proportions and the interlocking structure. We then worked closely with engineering to study airflow, structural strength, balance, vibration and manufacturability.
Physical prototypes were also very important. Some things look convincing on a screen but behave very differently when they are actually moving air. Building and testing the physical forms allowed us to see what worked, what didn't, and where the design needed to evolve.
So I wouldn't say there was one particular tool that created WARP. The most important tool was the process of moving constantly between imagination, digital modelling and physical reality.
I usually start with a simple sketch. For me, sketching is still the fastest way to explore an idea and understand its proportions and movement before getting too technical.
From there, we developed the geometry in 3D CAD, where I could start working more precisely with the blade shape, angles, proportions and the interlocking structure. We then worked closely with engineering to study airflow, structural strength, balance, vibration and manufacturability.
Physical prototypes were also very important. Some things look convincing on a screen but behave very differently when they are actually moving air. Building and testing the physical forms allowed us to see what worked, what didn't, and where the design needed to evolve.
So I wouldn't say there was one particular tool that created WARP. The most important tool was the process of moving constantly between imagination, digital modelling and physical reality.
The most unique aspect of WARP is probably the way the three blades interlock at the centre.
I wanted to move away from the conventional ceiling-fan construction, where each blade is individually attached to a central motor with separate blade holders. Instead, I explored how the blades themselves could become part of the structure.
The interlocking geometry was inspired by the strength and stability of triangulation. It creates a strong visual identity, but it also has a functional purpose by reducing conventional connecting components and helping create a more stable rotating structure.
What I particularly like is that the same idea works on two levels. When the fan is switched off, you see a sculptural geometric object. When it starts moving, the blades create a completely different sense of motion and airflow.
So for me, the uniqueness isn't simply that WARP looks different. It is that the visual identity comes directly from the way the product is engineered
I wanted to move away from the conventional ceiling-fan construction, where each blade is individually attached to a central motor with separate blade holders. Instead, I explored how the blades themselves could become part of the structure.
The interlocking geometry was inspired by the strength and stability of triangulation. It creates a strong visual identity, but it also has a functional purpose by reducing conventional connecting components and helping create a more stable rotating structure.
What I particularly like is that the same idea works on two levels. When the fan is switched off, you see a sculptural geometric object. When it starts moving, the blades create a completely different sense of motion and airflow.
So for me, the uniqueness isn't simply that WARP looks different. It is that the visual identity comes directly from the way the product is engineered
Yes. WARP was very much a collaborative process.
I worked closely with our engineering and technical teams throughout the development, particularly on the areas where the design had to meet real physical requirements. The blade geometry, structural stability, balance, vibration, airflow, motor performance and manufacturing feasibility all required technical input.
There was a constant exchange between design and engineering. I would push the form in a certain direction, and the technical team would help us understand what was possible, what needed to change, and where we could push further. Sometimes engineering would challenge an aesthetic decision, and sometimes the design would challenge an existing technical solution.
We also worked with specialists in manufacturing and prototyping to turn the geometry into something that could actually be produced consistently.
For me, that collaboration was essential. The designer may start the idea, but it takes different kinds of expertise to make the idea real. WARP is very much the result of that process.
I worked closely with our engineering and technical teams throughout the development, particularly on the areas where the design had to meet real physical requirements. The blade geometry, structural stability, balance, vibration, airflow, motor performance and manufacturing feasibility all required technical input.
There was a constant exchange between design and engineering. I would push the form in a certain direction, and the technical team would help us understand what was possible, what needed to change, and where we could push further. Sometimes engineering would challenge an aesthetic decision, and sometimes the design would challenge an existing technical solution.
We also worked with specialists in manufacturing and prototyping to turn the geometry into something that could actually be produced consistently.
For me, that collaboration was essential. The designer may start the idea, but it takes different kinds of expertise to make the idea real. WARP is very much the result of that process.
Technology plays an important role in WARP, but I don't see it as something that should dominate the design.
At the development stage, technology allowed us to explore and validate things that would be difficult to understand through sketches alone. 3D modelling, aerodynamic analysis, engineering simulations and physical testing helped us refine the blade geometry, balance, structural strength and airflow.
Technology also plays a role in the user's experience. WARP incorporates smart control, allowing users to adjust fan speed and operating modes through remote control, wireless connectivity and compatible smart-home systems. It also supports different operating modes, including forward and reverse airflow, so the product can adapt to different conditions and seasons.
But ultimately, I believe technology should make the experience simpler, not more complicated. The best technology is often the technology you don't notice—you simply notice that the product works better.
That is also how I approached WARP. The technology is there to support the engineering and improve the experience, while the design remains the thing people see and connect with.
At the development stage, technology allowed us to explore and validate things that would be difficult to understand through sketches alone. 3D modelling, aerodynamic analysis, engineering simulations and physical testing helped us refine the blade geometry, balance, structural strength and airflow.
Technology also plays a role in the user's experience. WARP incorporates smart control, allowing users to adjust fan speed and operating modes through remote control, wireless connectivity and compatible smart-home systems. It also supports different operating modes, including forward and reverse airflow, so the product can adapt to different conditions and seasons.
But ultimately, I believe technology should make the experience simpler, not more complicated. The best technology is often the technology you don't notice—you simply notice that the product works better.
That is also how I approached WARP. The technology is there to support the engineering and improve the experience, while the design remains the thing people see and connect with.
Yes. Although WARP started from a visual idea, the final design was heavily influenced by research, testing and engineering data.
We studied airflow behaviour, blade geometry, blade angles, weight distribution, rotational balance, vibration and noise. We used 3D modelling and engineering analysis to explore different forms, and then validated those ideas through physical prototypes and testing.
One of the most important parts of the research was understanding the relationship between the blade shape and airflow. We weren't simply looking for the highest possible airflow volume. We wanted to understand how the air was being moved—how consistently it travelled through a space, how much turbulence was created, and how those changes affected acoustic comfort.
We also experimented with different structural approaches. The interlocking blade architecture evolved through this process, as we explored how to reduce components while maintaining strength, balance and stability.
For me, research doesn't mean designing purely from numbers. The data tells us what is happening, but observation and experimentation tell us why it matters.
The final form of WARP is really the result of a conversation between intuition, data and physical reality.
We studied airflow behaviour, blade geometry, blade angles, weight distribution, rotational balance, vibration and noise. We used 3D modelling and engineering analysis to explore different forms, and then validated those ideas through physical prototypes and testing.
One of the most important parts of the research was understanding the relationship between the blade shape and airflow. We weren't simply looking for the highest possible airflow volume. We wanted to understand how the air was being moved—how consistently it travelled through a space, how much turbulence was created, and how those changes affected acoustic comfort.
We also experimented with different structural approaches. The interlocking blade architecture evolved through this process, as we explored how to reduce components while maintaining strength, balance and stability.
For me, research doesn't mean designing purely from numbers. The data tells us what is happening, but observation and experimentation tell us why it matters.
The final form of WARP is really the result of a conversation between intuition, data and physical reality.
The biggest challenge was making the form I imagined actually work as a ceiling fan.
The warped geometry looked very different from a conventional blade, but that also created challenges with airflow, weight, balance, structural strength, vibration and noise. The more dramatic we made the form, the more difficult it became to maintain the performance and reliability expected from a real product.
Another challenge was the blade connection. I wanted the interlocking structure to look clean and purposeful, but it also had to withstand the forces created when the blades were rotating. We went through many iterations to find the right balance between structural integrity, simplicity and appearance.
Manufacturing was another major challenge. A shape can look beautiful in CAD, but that doesn't necessarily mean it can be produced consistently, assembled efficiently or maintained at the right tolerances.
There were also many ideas that I personally liked but had to abandon because they didn't perform well enough. That was probably one of the hardest parts of the process.
In the end, I learned that constraints don't necessarily limit creativity. Sometimes they force you to find a better solution.
WARP became what it is because we couldn't simply build the first idea I imagined—we had to keep pushing until the idea and the engineering agreed with each other.
The warped geometry looked very different from a conventional blade, but that also created challenges with airflow, weight, balance, structural strength, vibration and noise. The more dramatic we made the form, the more difficult it became to maintain the performance and reliability expected from a real product.
Another challenge was the blade connection. I wanted the interlocking structure to look clean and purposeful, but it also had to withstand the forces created when the blades were rotating. We went through many iterations to find the right balance between structural integrity, simplicity and appearance.
Manufacturing was another major challenge. A shape can look beautiful in CAD, but that doesn't necessarily mean it can be produced consistently, assembled efficiently or maintained at the right tolerances.
There were also many ideas that I personally liked but had to abandon because they didn't perform well enough. That was probably one of the hardest parts of the process.
In the end, I learned that constraints don't necessarily limit creativity. Sometimes they force you to find a better solution.
WARP became what it is because we couldn't simply build the first idea I imagined—we had to keep pushing until the idea and the engineering agreed with each other.
Honestly, the decision came from wanting to see how WARP would be judged outside of our own market.
When you work on a product for a long time, you naturally become very close to it. You know every decision, every compromise and every problem that went into making it. I felt that putting WARP in front of an international jury would give us a different perspective and a more objective measure of whether the idea could stand on its own.
I also felt WARP was a design that should be seen beyond our local market. It was created to challenge a very familiar product category, and I wanted to see whether that idea and its engineering story could resonate with people from different design cultures.
The awards were never the reason we designed WARP. The product came first. Submitting it was more about opening the work up to an international audience and allowing people who didn't know the journey behind it to judge the final result.
Receiving recognition was of course very meaningful, but for me, the real value was the validation that an idea developed here could have relevance on an international stage.
You spend so much time believing in your own design; sometimes you need to put it in front of people who have no reason to agree with you.
When you work on a product for a long time, you naturally become very close to it. You know every decision, every compromise and every problem that went into making it. I felt that putting WARP in front of an international jury would give us a different perspective and a more objective measure of whether the idea could stand on its own.
I also felt WARP was a design that should be seen beyond our local market. It was created to challenge a very familiar product category, and I wanted to see whether that idea and its engineering story could resonate with people from different design cultures.
The awards were never the reason we designed WARP. The product came first. Submitting it was more about opening the work up to an international audience and allowing people who didn't know the journey behind it to judge the final result.
Receiving recognition was of course very meaningful, but for me, the real value was the validation that an idea developed here could have relevance on an international stage.
You spend so much time believing in your own design; sometimes you need to put it in front of people who have no reason to agree with you.
WARP taught me to be more patient with my own ideas.
When I first started, I was very attached to the visual direction. I knew I wanted something bold and different, and I wanted to push the form as far as possible. But as the project developed, I learned that a strong idea is only the beginning.
Engineering, airflow, balance, vibration, noise and manufacturing constantly challenged the direction I wanted to take. I had to learn when to push harder and when to let go of something I liked because it wasn't the right solution.
That process made me more disciplined as a designer. I became better at listening to engineers, looking at data, testing ideas physically and accepting that sometimes the best design decision is not the one I initially imagined.
I also learned that simplicity is much harder than complexity. Making WARP look relatively simple required us to solve many complicated problems behind the scenes.
Most importantly, WARP changed the way I think about collaboration. I used to think of design as bringing an idea to the engineering team. Now I see it more as a conversation—the best ideas often come from the space between design and engineering.
WARP taught me that being a better designer isn't about defending your idea. It's about being willing to change it until it becomes a better idea.
When I first started, I was very attached to the visual direction. I knew I wanted something bold and different, and I wanted to push the form as far as possible. But as the project developed, I learned that a strong idea is only the beginning.
Engineering, airflow, balance, vibration, noise and manufacturing constantly challenged the direction I wanted to take. I had to learn when to push harder and when to let go of something I liked because it wasn't the right solution.
That process made me more disciplined as a designer. I became better at listening to engineers, looking at data, testing ideas physically and accepting that sometimes the best design decision is not the one I initially imagined.
I also learned that simplicity is much harder than complexity. Making WARP look relatively simple required us to solve many complicated problems behind the scenes.
Most importantly, WARP changed the way I think about collaboration. I used to think of design as bringing an idea to the engineering team. Now I see it more as a conversation—the best ideas often come from the space between design and engineering.
WARP taught me that being a better designer isn't about defending your idea. It's about being willing to change it until it becomes a better idea.
Perhaps the one thing I would like to add is that WARP was never really about designing a different-looking ceiling fan.
For me, it was about questioning something that had become so familiar that we stopped thinking about it. We use fans every day, but we rarely think about the air they create or the role that airflow plays in the atmosphere of a space.
That is something I would like to continue exploring. I believe air deserves to be considered alongside light, sound and materials when we think about how a space feels.
WARP was one step in that journey. It allowed me to explore how engineering and design could change the way we see airflow. But there is still so much more to discover.
Perhaps the most interesting thing about WARP is not what we have designed yet, but what it makes us question about what we could design next.
For me, it was about questioning something that had become so familiar that we stopped thinking about it. We use fans every day, but we rarely think about the air they create or the role that airflow plays in the atmosphere of a space.
That is something I would like to continue exploring. I believe air deserves to be considered alongside light, sound and materials when we think about how a space feels.
WARP was one step in that journey. It allowed me to explore how engineering and design could change the way we see airflow. But there is still so much more to discover.
Perhaps the most interesting thing about WARP is not what we have designed yet, but what it makes us question about what we could design next.
Grand Interview about Warp Ceiling Fan
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.
Traditionally, ceiling fans have been viewed as functional appliances designed to quietly serve a purpose. With Warp, I wanted to challenge that perception and explore whether a ceiling fan could contribute to a space in the same way a piece of architecture, lighting, or sculpture does.Warp was conceived as an icon that pays homage to foundational engineering principles. Inspired by the strength of triangulation, the efficiency of aerodynamics, and the precision of aviation, it demonstrates how true engineering can create objects of both purpose and beauty. Rather than concealing its engineering, Warp celebrates it. The interlocking blade structure transforms structural logic into a distinctive sculptural form that expresses movement even when stationary.Its aerodynamic geometry, reduced component count, and integrated blade architecture work together to improve stability, minimize vibration, and deliver efficient, quiet airflow. In Warp, performance and aesthetics are not separate considerations—they are inseparable outcomes of the same design philosophy.More than a piece of function, Warp sets out to redefine the ceiling fan category. It challenges conventional expectations by proving that a fan can be simultaneously efficient, sculptural, and emotionally engaging. For consumers, it elevates a household appliance into an object of pride and conversation. For interior designers, it transforms the ceiling from an overlooked surface into an opportunity for architectural expression.I believe Warp redefines what a ceiling fan can contribute to a living space. It is not merely a tool for comfort, but a statement of design and engineering—one that pushes beyond what people think a fan is and invites them to imagine what it can become.
The refinement phase was undoubtedly the most challenging part of the project because it required balancing two ambitions that were often in conflict: creating a bold, sculptural form while ensuring the fan remained practical, efficient, and manufacturable.In the early stages, the blade geometry was far more dramatic than what you see today. While visually striking, some of these forms introduced unnecessary weight, increased manufacturing complexity, and disrupted airflow in ways that compromised performance. At several points, features that enhanced the visual expression had to be reconsidered because they created turbulence, affected balance, or added unnecessary material.The turning point came when we stopped viewing engineering constraints as limitations and instead treated them as design opportunities. Every curve, transition, and blade angle was refined through an iterative process to serve both aerodynamic and aesthetic purposes. The interlocking blade architecture emerged from this approach, allowing us to reduce components, improve structural stability, and express movement through the form itself.What ultimately shaped Warp was the belief that neither form nor function should dominate the other. The final design is the result of countless refinements where visual drama was balanced against airflow performance, structural integrity, ease of assembly, and user experience. Rather than compromising between the two, the goal was to allow engineering and design to inform one another until they became inseparable. The result is a ceiling fan whose sculptural identity is not applied decoration, but a direct expression of how it works.
The development of Warp was driven by a simple question: how can a ceiling fan be engineered with the same clarity of purpose found in aviation while remaining relevant to modern living spaces? The challenge was bringing together influences that appeared very different on the surface—aircraft engineering, minimalist design principles, and the spatial constraints of contemporary homes.Aerospace engineering provided the foundation. I was fascinated by how aircraft components are shaped by performance, where every curve, angle, and surface serves a purpose. Minimalist design philosophy then helped guide what to remove rather than what to add, allowing the product to express its engineering honestly and without unnecessary ornamentation. At the same time, the realities of urban living, particularly in Singapore where ceiling heights are often limited, demanded a compact and visually balanced form that would not overwhelm a space.One unexpected source of inspiration came from fundamental engineering itself. The strength and efficiency of the triangle became a recurring theme throughout the development process. This eventually influenced the interlocking blade architecture, where structural logic became both a functional and visual feature. Another unexpected realization was that movement could be expressed without actual motion. By carefully shaping the blades and their relationship to one another, Warp was able to convey a sense of energy and flow even when stationary.Over the twelve months of development, these influences gradually converged into a single design language. Rather than treating engineering, architecture, and aesthetics as separate disciplines, Warp became an exploration of how they could coexist. The result is a ceiling fan that pays homage to aviation, respects the realities of modern living, and transforms functional engineering into a sculptural architectural presence.
While Warp began as an exploration of aerodynamics, engineering, and sculptural design, I have always viewed smart functionality as an equally important part of its evolution. The goal is not simply to add more technology, but to create a more intuitive relationship between people, their environment, and the movement of air.Future iterations could see Warp becoming increasingly responsive to its surroundings, using environmental data such as temperature, humidity, occupancy, and air quality to automatically optimize airflow and energy consumption. Rather than requiring constant user input, the fan could intelligently adapt to changing conditions, enhancing comfort while reducing energy usage. Greater integration with smart home platforms and building management systems would also allow airflow to become part of a larger ecosystem that coordinates lighting, climate control, and energy management.I believe ceiling fans have an important role to play in the future of sustainable buildings. Moving air requires significantly less energy than cooling air, making ceiling fans one of the most effective tools for improving comfort while reducing reliance on air-conditioning. As cities become denser and energy efficiency becomes increasingly critical, aerodynamically optimized fans such as Warp can help lower energy consumption without compromising occupant comfort.Ultimately, I see Warp evolving beyond a standalone appliance into an intelligent environmental device. By combining advanced aerodynamics, efficient motor technology, and connected controls, ceiling fans can become active contributors to healthier, smarter, and more sustainable buildings. In this context, the future of the ceiling fan is not only about moving air—it is about intelligently shaping how we experience space, comfort, and energy in the built environment.
Receiving the Bronze A’ Design Award is deeply meaningful because it validates a belief that has guided both Aerahaus and my personal design journey—that everyday objects deserve the same level of thought, creativity, and engineering rigor as any celebrated piece of architecture or industrial design.For Aerahaus, this recognition demonstrates that a Singapore-based design brand can contribute meaningfully to the global design conversation. It reinforces our commitment to creating products that are not only functional, but also emotionally engaging, architecturally relevant, and rooted in genuine engineering principles. The award gives us a platform to share our philosophy with a wider international audience and strengthens our confidence in pursuing design-led innovation.On a personal level, Warp represents more than a ceiling fan. It embodies my fascination with aviation, aerodynamics, and the beauty of purposeful engineering. Throughout its development, I was driven by the idea that engineering should not be hidden behind a product—it should be celebrated and expressed through form. The interlocking blade architecture, aerodynamic geometry, and sculptural presence of Warp are all manifestations of that belief.More importantly, this recognition affirms that consumers and designers are increasingly seeking products with meaning, character, and authenticity. Warp was developed as an icon that pays homage to foundational engineering principles, demonstrating how function can evolve into sculpture and how utility can inspire emotion.Ultimately, this award is not a destination but an encouragement to continue pushing boundaries. It reinforces my mission to elevate everyday objects into purposeful, aerodynamically inspired statements that enrich the spaces they inhabit. If Warp encourages people to look differently at a ceiling fan—and perhaps appreciate the beauty of engineering in their everyday lives—then it has achieved something far greater than simply moving air.
The decision to conceal the fasteners was driven by a belief that good design should feel effortless, even when significant engineering complexity exists beneath the surface. In many products, fasteners are treated as purely functional necessities. While there is nothing inherently wrong with exposing them, I felt that the visual language of Warp would be stronger if the engineering appeared more integrated and resolved.By recessing and concealing the fasteners within the assembly, we were able to create cleaner surface transitions and a more unified form. This not only enhances the sculptural quality of the fan but also reduces small airflow disruptions around the blade interfaces, contributing to smoother airflow characteristics and quieter operation. While most users may never consciously notice this detail, they experience its benefits through the product’s overall refinement.More importantly, this decision reflects a broader design philosophy that guides my work. I believe the highest form of engineering is often invisible. When a product feels balanced, intuitive, and elegant, it is usually the result of countless decisions that remain unseen. Much like in aviation, where the beauty of an aircraft comes from the integration of many complex systems working in harmony, the goal with Warp was to allow engineering and aesthetics to become inseparable.For me, appearance should never be a layer applied over engineering. The form should emerge from the engineering itself. Every visible surface, proportion, and detail should be a reflection of a deeper functional logic. Concealing the fasteners was therefore not simply an aesthetic decision—it was an expression of respect for craftsmanship, precision, and the belief that thoughtful engineering can create a sense of simplicity that feels both effortless and timeless.
I would want people to understand that Warp is not simply a ceiling fan with an iconic shape. Every curve, angle, and connection was developed through a process of balancing aerodynamic performance, structural efficiency, manufacturability, and visual expression. The final form may appear effortless, but it is the result of countless refinements where engineering and design continuously challenged one another.One of the most important influences came from aviation and fundamental engineering principles. The project explored how airflow could be expressed visually through form while remaining true to its functional purpose. The interlocking blade architecture was inspired by the strength and efficiency of triangulation—one of the most fundamental concepts in engineering. This allowed us to reduce connecting parts, improve structural stability, and minimize vibration while creating a distinctive sculptural identity.What remains largely invisible to the casual observer is the amount of restraint involved in the design process. Many of the most dramatic early concepts were abandoned because they compromised airflow, balance, noise levels, or ease of installation. The final geometry is therefore not an exercise in styling, but the outcome of carefully resolving competing demands. The high-curvature blades, concealed fasteners, aerodynamic transitions, and simplified assembly all exist because they serve multiple purposes simultaneously.Perhaps the most invisible aspect of Warp is that its aesthetics are inseparable from its engineering. The sense of movement people see, the quietness they hear, and the comfort they feel are all connected. What appears to be a sculptural object is, in reality, a series of engineering decisions expressed through form. For me, that is the essence of good design—when performance and beauty become impossible to separate.