The Cognitive Exoskeleton
How Technology Can Be Used to Improve the Human Condition
Over the last decade, the amount of data available to help us build models of the world has grown exponentially. We are increasingly connecting our home devices, and even ourselves, to the Internet and uploading data into the cloud. We call this the Internet of Things.
As a result, we’ve amassed at least four zettabytes of data from Internet-connected devices that exist in the world today. To put that in perspective, a zettabyte is one trillion gigabytes.
A lot of this data is about our health—how many steps we’ve taken, our heart rate, blood oxygen levels. These are all physiological indicators about health and wellness that are being tracked and monitored by wearable devices.
By the end of 2019, analysts estimate there will be at least 500 million wearable devices on the face of the Earth, all of which will provide significant amounts of data about people and their activities.
So, what will we do with all of this data? Researchers like Dr. Bill Casebeer at Lockheed Martin think they have the answer: building tools that improve how humans and their machine teammates interact to make life better. These tools are a kind of “cognitive exoskeleton.”
Defining an Exoskeleton
An exoskeleton refers to the external covering of the body, seen most commonly in nature in some invertebrate animals. This design allows these animals to manage additional physical weight and load.
Engineers are applying the concept of an exoskeleton to create systems like Lockheed Martin’s FORTIS™, which can make it feel as though workers using heavy tools are operating in an almost weightless environment.
From the Body to the Brain
By using data about how the body moves and operates, engineers can apply the principles of biomechanics to FORTIS to transfer the weight of tools to a mechanical arm, then to the lower-body exoskeleton, where the weight is transferred to the ground.
“In the same way a physical exoskeleton is built using data about how the human body performs under stress and load, a ‘cognitive exoskeleton’ can be used to analyze cognitive stress and load,” said Casebeer. “In other words, we can create Big Data-driven ‘scaffolds’ that assist with human mental and cognitive performance.”
Casebeer believes there are three main factors that are critical to building a cognitive exoskeleton.
Now, armed with this knowledge, we can change the way we interact with our technologies. For example, we can have our fitness device vibrate to wake us up slightly earlier in the morning so our bodies are in better sync with REM cycles.
“In the future, I believe our technologies will become more mobile, adaptive and autonomous,” said Casebeer. “We need to understand how to change behavior to help humans and their tools work better together as a team.”
The Cognitive Exoskeleton in Action
Cognitive exoskeletons can also be used to improve our ability to deliver user-tailored education. For instance, by monitoring where the user of a computer training system is putting their eyes, physiology and attentional state, we can build a digital tutor that interacts with the student to better provide an interesting and useful educational stimulus.
“Cognitive exoskeletons are an important part of how we will build better teams of people and machines in the future,” noted Casebeer. “ATL’s Human Systems and Autonomy team is excited to be leading the charge in this area.”