These embodied tools could be leveraged to improve learning in several ways.
Considering the role of the body in human cognitive function has led to basic insights in cognitive science regarding the role of embodied tools: gesture, action, and analogical mapping.
One of the principle ways that embodied tools may enhance STEM learning is by improving spatial cognition (Clifton, Chang …Mazalek, 2016; DeSutter and Stieff 2017 1, 8. Spatial cognition encompasses the set of cognitive processes involved in reasoning about spatial problems.
A particular challenge — bearing in mind the desirability of conforming to existing intuitions about discrete Event-B, and the impact on tool support (as embodied in tools for discrete Event-B like Rodin) — is to design the whole framework so as to disturb as little as possible the existing structures for handling discrete Event-B.
Analogies do not require embodied learning tools, but embodied learning tools follow the principle of analogical learning by mapping a familiar domain onto an unfamiliar one; by moving action to abstraction (Goldin-Meadow & Beilock, 2010).
Embodied cognitive tools provide a unique opportunity to augment STEM education by adding approaches that the cognitive system can readily incorporate and internalize.
Although the pyramid can be perceived as a static snapshot of the tiers of responsibility, it is nonetheless intended to be viewed as a flexible tool embodying a dynamic tension which allows the framework to adapt to enable a focus both on the present and the future.
Consistent with the transfer of goals for the hand to those of the tool, this finding resonates with embodied theories of tool use whereby through use, tools become incorporated as part of the body schema.
Coders and developers are the sergeants here, making useful tools and embodying the collaborative ethos we seek to embed in government.
That is, complex technologies, such as biomedical research tools, embody a number of technological inputs, many of which are patented.
