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Monday 12th of December, 11:00 AM @HML 3rd Floor Jackson Hall, Queen's University
Professor Morten Fjeld
Head of t2i Lab, www.t2i.se
Chalmers University of Technology, Sweden
Abstract: The talk presents three projects in the field of emerging and alternative display techniques; the two first are in the field of haptic display, the thrid is in the area of mid-air display. The OmniVib projects presents some basic studies and principles to leverage cross-body vibrotactile notifications for mobile phones. The HaptiColor project deals with a more specific challenge, but the insights are bearing for a wider range of applications; to assist the colorblind, we employed a vibration wristband that enables interpolating color information as haptic feedback. As part of a more futuristic initiative, we present a map navigation concept using a wearable mid-air display. The projects presented have been carried out in collaboration with NUS Singapore and University of Maryland (UMD), College Park.
Queen’s University’s Human Media Lab to unveil musical instrument for a flexible smartphone
KINGSTON - Researchers at the Human Media Lab at Queen’s University have developed the world’s first musical instrument for a flexible smartphone. The device, dubbed WhammyPhone, allows users to bend the display in order to create sound effects on a virtual instrument, such as a guitar or violin.
“WhammyPhone is a completely new way of interacting with sound using a smartphone. It allows for the kind of expressive input normally only seen in traditional musical instruments.” says Dr. Vertegaal.
Queen’s University’s Human Media Lab to unveil world’s first flexible lightfield-enabled smartphone.
KINGSTON - Researchers at the Human Media Lab at Queen’s University have developed the world’s first holographic flexible smartphone. The device, dubbed HoloFlex, is capable of rendering 3D images with motion parallax and stereoscopy to multiple simultaneous users without head tracking or glasses.
“HoloFlex offers a completely new way of interacting with your smartphone. It allows for glasses-free interactions with 3D video and images in a way that does not encumber the user.” says Dr. Vertegaal.
HoloFlex features a 1920x1080 full high-definition Flexible Organic Light Emitting Diode (FOLED) touchscreen display. Images are rendered into 12-pixel wide circular blocks rendering the full view of the 3D object from a particular viewpoint. These pixel blocks project through a 3D printed flexible microlens array consisting of over 16,000 fisheye lenses. The resulting 160 x 104 resolution image allows users to inspect a 3D object from any angle simply by rotating the phone.
Queen’s University’s Human Media Lab to unveil world’s first handheld with a fully cylindrical display at CHI 2016 conference in San Jose, CA.
Researchers at Queen’s University’s Human Media Lab have developed the world’s first handheld device with a fully cylindrical user interface. The device, dubbed MagicWand, has a wide range of possible applications, including use as a game controller.
Similar to the Nintendo Wii remote, but with a 340 degree cylindrical display, users are able to use physical gestures to interact with virtual 3D objects displayed on the wand. The device uses visual perspective correction to create the illusion of motion parallax; by rotating the wand users can look around the 3D object.
Queen’s University’s Human Media Lab to unveil world’s first wireless flexible smartphone; simulates feeling of navigating pages via haptic bend input
KINGSTON - Researchers at Queen’s University’s Human Media Lab have developed the world’s first full-colour, high-resolution and wireless flexible smartphone to combine multitouch with bend input. The phone, which they have named ReFlex, allows users to experience physical tactile feedback when interacting with their apps through bend gestures.
“This represents a completely new way of physical interaction with flexible smartphones” says Roel Vertegaal (School of Computing), director of the Human Media Lab at Queen’s University.
“When this smartphone is bent down on the right, pages flip through the fingers from right to left, just like they would in a book. More extreme bends speed up the page flips. Users can feel the sensation of the page moving through their fingertips via a detailed vibration of the phone. This allows eyes-free navigation, making it easier for users to keep track of where they are in a document.”
Queen’s University’s Roel Vertegaal says self-levitating displays are a breakthrough in programmable matter, allowing physical interactions with mid-air virtual objects
KINGSTON, ON – An interactive swarm of flying 3D pixels (voxels) developed at Queen’s University’s Human Media Lab is set to revolutionize the way people interact with virtual reality. The system, called BitDrones, allows users to explore virtual 3D information by interacting with physical self-levitating building blocks.
Queen’s professor Roel Vertegaal and his students are unveiling the BitDrones system on Monday, Nov. 9 at the ACM Symposium on User Interface Software and Technology in Charlotte, North Carolina. BitDrones is the first step towards creating interactive self-levitating programmable matter – materials capable of changing their 3D shape in a programmable fashion – using swarms of nano quadcopters. The work highlights many possible applications for the new technology, including real-reality 3D modeling, gaming, molecular modeling, medical imaging, robotics and online information visualization.
Queen’s University’s Human Media Lab present 3D Printed Touch and Pressure Sensors at Interact'15 Conference
Queen's professor Roel Vertegaal and students Jesse Burstyn, Nicholas Fellion, and Paul Strohmeier, introduced PrintPut, a new method for integrating simple touch and pressure sensors directly into 3D printed objects. The project was unveiled at the INTERACT 2015 conference in Bamberg, Germany: one of the largest conferences in the field of of human-computer interaction. PrintPut is a method for 3D printing that embeds interactivity directly into printed objects. When developing new artifacts, designers often create prototypes to guide their design process about how an object should look, feel, and behave. PrintPut uses conductive filament to offer an assortment of sensors that an industrial designer can easily incorporate into these 3D designs, including buttons, pressure sensors, sliders, touchpads, and flex sensors.
Queen’s University’s Human Media Lab and the Microsoft Applied Sciences Group unveil DisplayCover at MobileHCI'15
Queen’s professor Roel Vertegaal and student Antonio Gomes, in collaboration with the Applied Sciences Group at Microsoft, unveiled DisplayCover, a novel tablet cover that integrates a physical keyboard as well as a touch and stylus sensitive thin-film e-ink display. The technology was released at the ACM MobileHCI 2015 conference in Copenhagen - widely regarded as a leading conference on human-computer Interaction with mobile devices and services.
DisplayCover explores the ability to dynamically alter the peripheral display content based on usage context, while extending the user experience and interaction model to the horizontal plane, where hands naturally rest.
Everyone in tech knows the legend of Xerox PARC. In the early 1970s, members of the Palo Alto Research Center invented many of the basic building blocks of modern information technology, from bitmap graphics displays and WYSIWYG text editors to laser printers and the graphical user interface (GUI).
"Invent, don't innovate. Problem-finding beats problem-solving"
Biometric technologies are on the rise. By electronically recording data about individual’s physical attributes such as fingerprints or iris patterns, security and law enforcement services can quickly identify people with a high degree of accuracy.
The latest development in this field is the scanning of irises from a distance of up to 40 feet http://news.discovery.com/tech/gear-and-gadgets/iris-scanner-identifies-a-person-40-feet-away-150410.htm (12 metres) away. Researchers from Carnegie Mellon University in the US demonstrated they were able to use their iris recognition technology to identify drivers from an image of their eye captured from their vehicle’s side mirror.