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Editor's Notes

• #4: Exploitation of human intuition on manipulation of real-world objects for interacting with computer systems. Taking transforming real-world objects into displays to the next level by using deformation as another input parameter. Many degrees of freedom for deformation of everyday objects Algorithm for capturing complex deformation in high detail and real time New and robust method for detecting hands and fingers with a Kinect camera using optical analysis of the surface material
• #5: Dynamic shader lamps - painting on movable objects Mirage Table - freehand interaction on projected augmented reality Omnitouch - wearable multitouch interaction everywhere WUW - wear ur world; a wearable gestural interface
• #7: Capturing the pose and detailed deformation of a deformable surface from depth data in real-time
• #10: Exploring and analyzing volumetric data sets Important in medicine: CT and MRI scans curved cross section geology engineers to locate the best place for well earth sciences Volumetric data set to the 3D volume in physical space Highly flexible display Can lock the view Slicing through time in videos Inspired by khronos projector Khronos Vs FlexPad Khronos: very bulky several cubic meters big immobile setup with a fixed screen Flexpad: virtually any sheet of paper display allows for defining a curvature Animating virtual paper characters For children Animating paper characters 3D models animation
• #11: Folding and very steep bending angles solution- Kinect sensors and projectors Makes a trade-off tracking stability & detectable deformations. Not suitable for: very sharp bends Particular folds Stretchable materials
• #12: To evaluate the feasibility of the Flexpad approach, they conducted two evaluations, examining both system performance and the users�� ability of precise interaction with highly deformable displays. Test : 1.Tracking performance Volunteers use slicing-throughtime application and freely create interesting renderings by deforming the display. Recorded the raw video stream from the Kinect camera.calculating the RMS error . This shows that the tracking performs very adequately even in challenging realistic tasks. 2. User performance deformation evaluate how fast and precise users are able to perform deformations and to examine the influence of flexible vs. shape-retaining display materials. The result is users are capable of using highly flexible displays with ease. Users can make various single and dual deformations with both materials quickly and easily. Fully flexible material suited for simple deformations and preferred for the task of the controlled experiments. Shape-retaining materials well suited for complex deformation and analyzing curve phenomena but it introduce time penalty in shape creation.
• #13: Touch input on deformable displays developing solutions for Kinect sensors to detect touch input reliably on real-time deformable surfaces more advanced techniques need to be developed, for instance based on the shape of the touch point or on the normal force involved to deform the display Active flexible displays Currently available projected display prototypes are still very limited in their flexibility, so that they cannot be used to realize our concepts. Given the rapid advancements in display technology Smart materials for flexible displays both fully flexible and shape-retaining displays have unique capabilities. A material that can programmatically switch between both of these states would combine all these advantages. Moreover, future work should examine handheld displays that, in addition to being deformable, are stretchable. This will further increase the expressiveness of interactions with flexible displays