Spacemaker VR is an Oculus-based virtual reality system that allows designers to walk through their designs
Source: Digital Physical

The physical spaces we inhabit have a direct influence on how we feel, think and behave. Understanding this implicit dialogue between built environments and our minds continues to open new ways for architects to design physical spaces that better meet people’s needs. Neuro-architecture, interactive architecture, intelligent environments and virtual reality technology are among those exciting and partially overlapping disciplines that are currently on the frontline of the ongoing architectural revolution.

Neuro-architecture

Where previously architects had to count on purely anecdotal and intuitive principles, neuro-architecture is now promising to provide a truly evidence-based neurobiological rationale for designing architectural spaces, be it your office, school or hospital. This is achieved thanks to a variety of techniques that allow researchers to quantify and measure human responses to different components that constitute a particular architectural environment, including by measuring the relevant regions of the brain.

Understanding the precise effects of each component on our mental and physical health is difficult to overestimate. Imagine being able to design classrooms whose very architectural configuration aids students’ concentration and improves learning or hospitals that accelerate patients’ recovery. The research can be carried out on existing buildings, models or in virtual reality simulations, before the actual structures are even built.

Virtual reality, in fact, can be extremely helpful when it comes to neuro-architecture research for several reasons. It allows to set up virtual environments where participants can navigate in life-like conditions, while at the same time researchers can have a systematic control of the introduced stimuli. Importantly, the response can be measured on different scales starting from an entire building to the scale of a room to a single architectural feature such as the height of the ceiling or the amount and quality of light allowed into the space. Some interesting research in this direction was conducted by the professor Eve Edelstein with the use of the virtual reality platform CAVE.

Those who think that the CAVE and other virtual reality rooms are not immersive enough, think, for instance, of the possibilities opened up by the much-talked-about Oculus headset. Contrary to virtual reality rooms, which are not easily accessible to everyone, virtual reality headsets are potentially available to every designer. Instead of fiddling around with physical prototypes, designers could now walk through their own creations and actually experience them. Spacemaker VR from Digital Physical is one example of how this technology can be used for the benefit of architects.

Read our previous post to learn about the eXperience Induction Machine, another exciting application of virtual reality.

Interactive architecture and intelligent environments:

The two terms are often interchangeable in many contexts, perhaps with a slightly more artistic connotation for the former and a more functional one for the latter. Whatever the difference between them, both are guided by the increasing penetration of computing into our daily lives to develop dynamic environments that can adapt their physical properties to the behaviour of the inhabitants. The ultimate goal, of course, is make people feel more at home and in harmony with their physical surroundings.

Many of the examples of interactive architecture are born from a mixture of artistic thinking and computational engineering. So far the researchers have been toying with some of the most fundamental parameters that are known to alter our state of mind. Unsurprisingly, light is one of the favorites when it comes to interactive architecture. Check out the two examples below, which include the Synthetic Oracle (former Hello Stranger) from the SPECS group at Pompeu Fabra University and BIOSTAGOG developed jointly by Platige Image and Bridge.

We live in a time when the scale of scientific research is undergoing an unprecedented exponential growth, which contributes to the generation of equally unprecedented amounts of data. Disciplines like neuroscience, astronomy or particle physics are piling up so much information that finding and implementing new ways of representing, navigating and manipulating this information is rapidly becoming a pressing necessity.

One specifically promising method relies on the use of virtual and mixed reality platforms. What could be more intuitive and useful for, say, a neuroscientist trying to make sense of a huge and seemingly chaotic brain data set than an ability to fly through its virtual gesture-controlled representation and actually experience the properties of data in search for meaningful patterns.

The eXperience Induction Machine (XIM), built in the SPECS lab at Pompeu Fabra University in Barcelona, is one example of such immersive spaces, which is currently applied to work precisely with data collected from the human brain. XIM allows researchers to visualize a brain connectome, the network of nodes and connections that defines what is going on in our vital organ. XIM is now a key part of the Collective Experience of Emphatic Data Systems (CEEDs), a European project seeking to develop a whole set of tools to bring big data visualisation to a new level.

XIM can be hooked up to a series of sensors that measure such parameters as the user’s heart rate, skin conductance, eye gaze and brain activity. This allows the system to register certain subconscious patterns, associated with how we perceive and process information, and guide the user’s attention to areas of potential interest that would otherwise remain unnoticed. This feature, along with XIM’s increased interactivity, is what really makes XIM stand out in comparison with some other state-of-the-art virtual and mixed reality systems such as the AlloSphere at the California Nanosystems Institute or the CAVE2 at the University of Illinois at Chicago. 

Earlier this month, SPECS and CEEDs showcased their platform for embodied exploration of neural data at the 16^th edition of Laval Virtual, the largest virtual technology conference in Europe. You can see a complete photo report from the event HERE.

The LOPES has already been included in a couple European projects; formerly in one named Everyon and currently in the 3 year project MINDWALKER (Mind controlled orthosis and VR training environment for walk empowering ). This project is capitalising on the synergy that exists between diverse research fields in Europe; as potential robotics applications are becoming more and more concrete and plausible likewise, recent brain research is delivering promising results with new potential applications. Exploiting these concurrent developments, MINDWALKER incorporates the LOPES, Brain Computer Interface technologies and Virtual Reality in a comprehensive rehabilitation system for the lower limbs. Similarly, the SPECS Lab at the Universitat Pompeu Fabra has developed RGS (Rehabilitation Gaming System), a virtual reality tool that exploits what we know about the brain’s  plasticity to rehabilitate arm movement in stroke patients.

Robot Companions for Citizens is another example of a European sponsored initiative which integrates advances in neuroscience, robotics and new materials. This initiative aims to create novel benefits for society by fostering  the development of new types of robots and a new industry at large.