As new emerging technologies surface, the idea of “transition” will take on entirely new form. Not only will “transition” continue to exist between building materials (like you see in buildings today), but “transition” will also be present within a material’s properties — changing the very nature of how a particular material behaves at any given time.

For instance, smart materials will be able to change in real time as certain variables like temperature, light or stress trigger them. Similarly, new sensing technologies will come together to yield smart environments where ubiquitous computing is tuned to give occupants a more personalized experience.

Furthermore, as nanotechnology and biomimetic systems rise into the forefront, you as an architect will need to consistently rethink how building materials typically function — by building for them from the bottom up.

The “rules” behind designing for material behavior are changing and new smart material systems will give you a new kind of flexibility which you can optimize by taking both function and form to entirely new levels.

A key to doing this is to rethink your notion of Read more

Nanotechnology is allowing for the development of new materials that will revolutionize how buildings work. It is important for architects to understand some fundamentals about how nanotechnology can change materials and their behaviors. As smart materials gain greater ability to interact and change properties, it will be up to architects to design for their meaningful integration into our built environments.

Please note: If you are not able to play the video, make sure to click this article’s title above so you can view this video from the original Sensing Architecture page.

VIDEO REVIEW

A nanometer is very small. It is 100,000 times thinner than a human hair. And yes, nanotechnology involves seeing and constructing things at this scale. Such a shift in size allows for greater control over nanomaterials – ultimately giving us flexibility to change a material’s behavior.

As we gain greater ability to customize nanomaterials and their unique behaviors, scientists are uncovering creative and unique ways to make such “new” materials work. This video does a good job of illustrating why such materials behave the way they do – where quantum confinement and surface area play major roles. I found it particularly interesting to know that Read more

The way humans perceive the world is through their senses that use certain rules by which they navigate. For instance, the use of perspective, stereopsis, occlusion, shading and sfumato are all listed in Scientific American Mind’s article A Perspective on 3-D Visual Illusions as rules that “create a 3D formation about our world”. The human brain and nervous system sees this 3-dimensional world on 2-dimensional eye retinas. Thus, rules are used to constantly interpret between the 2-D world and the 3-D world.(1)

One example proving this inference between the 3-dimensional and the 2-dimensional is the visual illusion of the Leaning Tower of Pisa. When two images of the receding tower are placed next to one another, the tower to the right seems to lean at a greater angle than the image to the left. This is because the human eyes want to see the tower image to the right as parallel to the tower image to the left. This cannot happen because both images are receding; the brain reconfigures the images to diverge. In other words, the brain reconstructs a third dimension.(1)

Illusions like the Tower of Pisa illusion give us proof that our brains use rules to navigate the world. When 3-D is placed on 2-D this often tricks the mind into “seeing” differently. So, what does this mean for architecture? How is the 2-D within architectural design evolving? Why is the use of surface so important? What new illusions might we uncover in the future as the use of surface in architecture continues to advance?

Since early times, 2-D surface has been used to create illusions and representations of our 3-D world. At times, our eyes navigate 2-D surface using 3-D navigation rules. This is most evident when we see perspective drawings on a canvas or building surface. Artists and architects alike make the most of our visual sensory system to use surface to create space. Within architecture, for example, the use of perspective on actual building surface can greatly modify spatial character.

Now, with the digital revolution, architectural space can be manipulated evermore by using surface. Architects are going beyond merely painting or applying a surface coating or facing. Architectural surface can literally become space that our eyes move through. With digital media, motion can also be applied to such surfaces, giving space more depths and varying dynamic movements. On very thin screens, humans are now able to navigate 3-D virtual space. At the same time, since this is virtual space – designers may challenge the rules that we humans have come to understand in the real world. (Rules of physics like gravity, friction and inertia can be altered to create certain environmental constructs.)

Nanotechnology is also changing the way architects and designers think of surface. As materials are constructed at the atomic and molecular level, nanotechnology has the power to alter material behavior. Such materials may be used to construct architecture and may transform the way occupants expect materials to perform. As materials become stronger, lighter and cleaner, surface applications will fundamentally change. Just imagine a surface that is perceived as strong and durable as opposed to vulnerable and delicate. The possibilities are immense.

Surfaces are becoming increasingly transient. As we advance further into the future, smart materials will continue to advance and alter the way building materials function. Now, we have glass that can change transparencies and sensors that can actuate LED surface lighting. In effect, the notion of “surface” is changing, and our perception of what we think 2-D space can do is expanding. We have come a long way from discovering the rules of perspective; yet, we are just beginning to understand the brain, its systems and the illusions that define them. Still, it is with the advancement of “surface” that 3-dimensional space continues to evolve – a direct influence from the human sensory system and how it navigates the world.

(1) Macknik, Stephen L. & Martinez-Conde, Susana. A Perspective on 3-D Visual Illusions. Scientific American Mind Magazine. October/November 2008.