faBrickation

Mueller, Stefanie; Mohr, Tobias; Guenther, Kerstin; Frohnhofen, Johannes; Baudisch, Patrick

doi:10.1145/2556288.2557005

Cited by 103 publications

(16 citation statements)

References 15 publications

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“…Our physical design process involved an iterative process with semi-functional paper-, cardboard-, fabric-and LEGO prototypes [18]. Our first intention was to 3D-print the final controller design, however, our versions of the LEGObased controller received positive feedback from the ADHD professionals.…”

Section: Building a Breath-based Respiration Controller In Legomentioning

confidence: 99%

ChillFish

Sonne

Jensen

2016

Proceedings of the TEI '16: Tenth International Conference on Tangible, Embedded, and Embodied Interaction

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Breathing exercises can help children with ADHD control their stress level, but it can be hard for a child to sustain attention throughout such an exercise. In this paper, we present ChillFish, a breath-controlled biofeedback game designed in collaboration with ADHD professionals to investigate the possibilities of combining breathing exercises and game design. Based on a pilot study with 16 adults, we found that playing ChillFish had a positive effect, helping the participants to reach a relaxed state similar to the one offered by traditional breathing exercises. Further, we analyze the opportunities and challenges of creating a tangible respiration-based controller and use it as a core game mechanic. Finally, we discuss the challenge of balancing engagement and relaxation in physically controlled games for children with ADHD in order to make a game that can be calming and still sustain their attention.

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Section: Building a Breath-based Respiration Controller In Legomentioning

confidence: 99%

ChillFish

Sonne

Jensen

2016

Proceedings of the TEI '16: Tenth International Conference on Tangible, Embedded, and Embodied Interaction

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“…This new workflow can introduce direct touch interaction to the current interactive fabrication workflow [52]. Moreover, similar to faBrickation [27], the user can attach 3D printed parts into the object rendered by Dynablock to achieve a higher resolution or embed different materials.…”

Section: Direct Interactive Fabricationmentioning

confidence: 99%

Dynablock

Suzuki

Yamaoka

Leithinger

et al. 2018

Proceedings of the 31st Annual ACM Symposium on User Interface Software and Technology

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Figure 1. Dynablock is a rapid and reconstructable shape formation system, comprised of a large number of small physical elements. A) Dynablock's shape consists of 9 mm blocks which can be connected with omni-directional magnets. B-D) Dynablock leverages the 24 x 16 pin-based shape display as a parallel assembler of blocks, Dynablock is able to construct three-dimensional shapes in seconds. E) The example shows the output of a miniature model of table and a chair. The constructed shape is graspable and reconstructable.

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“…For example, On-the-fly Printing enables incremental printing during the modeling stage [32]; ChronoFab, a 3D modeling tool, allows creating motion sculptures [21]. The size of a personal fabricated object can range from hair fibers [23], palm-size pieces [28,19], to room-size objects [1]. To facilitate interaction with these customized objects, unobtrusive physical tags are desired to link physical objects with digital systems.…”

Section: Related Workmentioning

confidence: 99%

AirCode

Nair

Nayar

et al. 2017

Proceedings of the 30th Annual ACM Symposium on User Interface Software and Technology

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air pocket optimization fabricated model AirCode embeded input mesh user-specified region & data goo.gl/1ph6g2 global component a c d e b Figure 1. (a) AirCode tagging tool takes as inputs a mesh, a user-specified region, and embedded data. (b) It first determines the air pocket parameters, including the depth d and thickness h, for a fabrication material. (c) An AirCode tag is embedded inside the object, without changing its geometry or appearance. (d) The fabricated tag is invisible under environmental lighting. (e) Using our imaging system that separates out the global scattering effects, the user detects the embedded tag and retrieve the data. "Moai" by gravityisweak / CC BY 3.0 / modified from original. ABSTRACTWe present AirCode, a technique that allows the user to tag physically fabricated objects with given information. An Air-Code tag consists of a group of carefully designed air pockets placed beneath the object surface. These air pockets are easily produced during the fabrication process of the object, without any additional material or postprocessing. Meanwhile, the air pockets affect only the scattering light transport under the surface, and thus are hard to notice to our naked eyes. But, by using a computational imaging method, the tags become detectable. We present a tool that automates the design of air pockets for the user to encode information. AirCode system also allows the user to retrieve the information from captured images via a robust decoding algorithm. We demonstrate our tagging technique with applications for metadata embedding, robotic grasping, as well as conveying object affordances.

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faBrickation

Cited by 103 publications

References 15 publications

ChillFish

ChillFish

Dynablock

AirCode

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