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CARDinality: Interactive Card-shaped Robots with Locomotion and Haptics using Vibration

arXiv.org Artificial Intelligence

This paper introduces a novel approach to interactive robots by leveraging the form-factor of cards to create thin robots equipped with vibrational capabilities for locomotion and haptic feedback. The system is composed of flat-shaped robots with on-device sensing and wireless control, which offer lightweight portability and scalability. This research introduces a hardware prototype. Applications include augmented card playing, educational tools, and assistive technology, which showcase CARDinality's versatility in tangible interaction.


The 'breakthrough' iPad game that can spot autism in children with 93% accuracy

Daily Mail - Science & tech

The way children play iPad games could reveal if they have autism, researchers have found. They found those with the condition used greater force and moved their finger in different ways. It is hoped the app could lead to earlier diagnosis and treatment. The children were asked to play games on smart tablet computers with touch-sensitive screens and embedded movement sensors. Researchers at the University of Strathclyde and colleagues at the start-up Harimata added code to two commercially available games for children in order for them to capture sensor and touch-screen data as they children played.


Mechanisms for Neuromodulation of Biological Neural Networks

Neural Information Processing Systems

The pyloric Central Pattern Generator of the crustacean stomatogastric ganglion is a well-defined biological neural network. This 14-neuron network is modulated by many inputs. These inputs reconfigure the network to produce multiple output patterns by three simple mechanisms: 1) detennining which cells are active; 2) modulating the synaptic efficacy; 3) changing the intrinsic response properties of individual neurons. The importance of modifiable intrinsic response properties of neurons for network function and modulation is discussed.


Mechanisms for Neuromodulation of Biological Neural Networks

Neural Information Processing Systems

The pyloric Central Pattern Generator of the crustacean stomatogastric ganglion is a well-defined biological neural network. This 14-neuron network is modulated by many inputs. These inputs reconfigure the network to produce multiple output patterns by three simple mechanisms: 1) detennining which cells are active; 2) modulating the synaptic efficacy; 3) changing the intrinsic response properties of individual neurons. The importance of modifiable intrinsic response properties of neurons for network function and modulation is discussed.


Mechanisms for Neuromodulation of Biological Neural Networks

Neural Information Processing Systems

The pyloric Central Pattern Generator of the crustacean stomatogastric ganglion is a well-defined biological neural network. This 14-neuron network is modulated by many inputs. These inputs reconfigure the network to produce multiple output patterns by three simple mechanisms: 1) detennining which cells are active; 2) modulating the synaptic efficacy; 3) changing the intrinsic response properties of individual neurons. The importance of modifiable intrinsic response properties of neurons for network function and modulation is discussed.