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Ubiquitous Computing: Smart Devices, Environments and Interactions 2009 John Wiley & Sons, Ltd. ISBN: 978-0-470-03560-3 Stefan Poland Ubiquitous Computing Smart Devices, Environments and Interactions

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In this paper we present two systems for augmenting indoor spaces with digital content using interactive environment away our handheld projectors our prototypes would explore several aspects of the design space are at varying degrees aware of their position and orientation in space and the surrounding environment the first system is a tethered handheld unit which contains a PICO projector a coaxial IR camera with diffuse illumination and an IMU the IMU provides orientation information whilst the IR camera can detect objects in front of the device such as the user's hands and fingers this enables shadow based interactions where a real shadow cast on the image can be used to control the displayed content here this ability is demonstrated using a physics based simulation it is also possible to use shadows to instantiate a menu with different icons when an item is selected with a finger gesture this is indicated by displaying the relevant icon in the palm of the hand another shadow based interaction technique uses pinch gestures to pan a digital document a second gesture may be used to activate a fingertip annotation tool our room projector combines the handheld unit shown previously with a lightweight infrastructure based on four ceilings mounted connect depth cameras when their user interacts in the space the absolute position of the projector is tracked using the Kine ct cameras these devices also generate real-time depth data which is fused to generate a mesh representation of the scene the raw depth data is noisy this becomes very apparent when the data from each camera is merged this is overcome by segmenting out a smooth background mesh tracking only foreground objects in real-time since the position and orientation of the handheld projector are tracked the area which the projection shines onto is accurately modeled it is possible to place virtual images within the modeled environment and reveal them in the real room as shown inset in the video by shining the mobile projector on them in the manner of a virtual flashlight we can detect shadow gestures using the built-in IR camera here we show a virtual painting technique where the fingertip is used to project graphics onto the surface behind unlike before this dynamic content may be fixed to any surface in the scene it is also possible to track the users hands using the data generated from the depth cameras in this example when the IR camera detects a pinch gesture the user can paint directly into 3d space visual feedback is generated in real-time using the projector shown in set a particle based physics simulation enables realistic interactions between the user and the virtual objects' feedback is provided to the user by using the projector as a flashlight into the virtual world shadow gestures can be used to extend these physics based interactions in this example virtual rods were extended through the shadow to enable physics based manipulation of virtual 3d content even when it is out of...

People Also Ask about

What is the architectural design for UbiCom system?

Three main types of architecture design for Ubicom systems are smart device, smart environment, and smart interaction, (b) An internal model of the Ubicom system properties, and (c) A model of Ubicom system's interaction with its external environments [5] .

What is ubiquitous computing environment interaction?

Ubiquitous Computing (also commonly referred to as Pervasive Computing) describes the ways in which current technological models, based upon three base designs: smart (mobile, wireless, service) devices, smart environments (of embedded system devices) and smart interaction (between devices), relate to and support a

What are the five 5 main requirements of ubiquitous computing?

Five core properties for UbiCom systems, distributed ICT, context-awareness, intrinsic human computer interaction, autonomy and artificial intelligence are proposed.

What are three basic types of environment for UbiCom systems?

Smart DEI Model Summary Basic Smart Device has many variations. Multiple flavours of smart device, UbiCom System interact across 3 main types of environment: physical, virtual & human. System of systems models in terms of multiple device combinations and interactions.

What are the three main types of design for UbiCom systems are proposed?

A holistic framework for analysing and designing the complete spectrum of UbiCom device has been proposed. This framework called the Smart DEI (pronounced Smart Day) model and is based upon three core designs: smart devices, smart Environment and smart Interaction.

What are the five main properties for UbiCom?

Five core properties for UbiCom systems are proposed: distributed ICT, context-awareness, intrinsic human computer interaction, autonomous systems and intelligent systems.

What is the basic design for UbiCom?

Three basic architectural design models for UbiCom system can be divided to smart devices, smart environment and smart interaction.

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What is ubiquitous computing stefan poslad?

Ubiquitous computing, as described by Stefan Poslad, refers to a scenario in which computing is made to appear everywhere and anywhere in everyday life, integrating seamlessly with the user's environment.

Who is required to file ubiquitous computing stefan poslad?

The concept of ubiquitous computing itself does not require filing by individuals. However, references to specific projects or research by Stefan Poslad may involve academic or research institutions, which would manage any filing or reporting.

How to fill out ubiquitous computing stefan poslad?

Filling out information related to ubiquitous computing would typically involve documenting research findings, project details, or insights shared by Stefan Poslad in related academic publications or presentations.

What is the purpose of ubiquitous computing stefan poslad?

The purpose of ubiquitous computing, according to Stefan Poslad, is to enhance user experience by embedding technology into the environment, allowing for smoother and more intuitive interaction with devices and systems.

What information must be reported on ubiquitous computing stefan poslad?

Information that may need to be reported would include research outcomes, methodologies used in studies, user interaction data, and implications for future technology deployment as noted in Stefan Poslad's work.