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The Future of User-System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

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Page 1: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

The Future of User-System Interaction

Prof. dr. Matthias RauterbergUser-Centered Engineering Group

TU/e Eindhoven University of Technology

Page 2: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

How to relate function and form, so that DMM == UMM

implementedfunctions

perceivable userinterfaceforms

DESIGNER

intendedsemantic

USER

perceivedsemantic

DMM := designer’s mental model UMM := user’s mental model

Page 3: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Design Metaphors

Channel

Tool

Substitute

long time ago 2000 history

Page 4: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Trend in Interface Design

0

50

100

150

1970-1990 1990-2010 2010-

SW controlsHW controls

Page 5: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Design Trends (1)

time1900 2000

mechanical style

electronic style

mechatronic style

Page 6: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Design trends (2)

time1900 2000

mechanical style

electronic style

mechatronic style

active forms

given forms(ubiquituous computing)

channel forms(e.g. PC, TV, Radio, etc)

connected forms(ambient intelligence)

dedicated form(e.g. typewriter, etc))

Page 7: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Robots today...

http://www.aibo.com/

Page 8: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Active forms: examples by nature

Page 9: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Active Forms: smart tennis racquetThe world's first chip-powered and electronically dampened racquet. Explosive power - ultimate comfort.

The integrated ChipSystem™ boosts the electrical impulse by the power of 10.The racquet offers unprecedented power through the active counterforce during ball contact.The ChipStystem™ eliminates 50% of the vibrations during ball contact and reduces the remaining vibrations twice as quickly as racquets without ChipSystem™.PowerFrame™ technology for top handling and incredible stability.PowerPattern™ for a maximum sweetspot, power and control.

swing style rating : S18

TECHNICAL SPECIFICATION

Beam Box+PowerFrame™

Head size 780 cm2 / 121 sq. in.

Weight (unstrung) 235 g / 8.3 oz.

Balance (unstrung) 355 mm

Length XtraLong, 28

Grip Size 0 - 5

Stringing PowerPattern™ 16/19

Page 10: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Active Forms: smart dragonfly

Nitinol Dragonfly PairThese authentic-looking dragonflies really flap their wings! The wings move once every two seconds, just like a resting dragonfly. Just attach these dragonflies to plants, picture frames, or your computer monitor. The wings move thanks to nitinol, the muscle of Stiquito. Comes with a 115v transformer and long cable.

Page 11: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Active Forms: the magic teaspoon

It looks just like an ordinary teaspoon. You hand it to someone to stir their tea or coffee with, they go to stir their drink and get... the shock of their life. The minute the teaspoon enters the boiling liquid, it bends in the middle. The bending isn't gradual, it is almost violent. Nervous people get quite a shock!

Page 12: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Two Trends in User Interface Technology

Mobile computing Ambient rooms and Cooperative buildings

Page 13: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Unsolved Research Problems (1)

wearable computing intelligent environments

Penetration of the body space

Penetration of the social space

Isolation in immersive virtual worlds

Privacy in augmented worlds

Page 14: The Future of User- System Interaction Prof. dr. Matthias Rauterberg User-Centered Engineering Group TU/e Eindhoven University of Technology

© M. Rauterberg, TU/e

Unsolved Research Problems (2)

Human

Adaptivehometechnology

Adaptation Rate: RsA

Adaptation Rate: RhA

Control Rate: RhC

If two adaptive systems (e.g., the human being and the adaptive technology) are coupled with each other, the following aspects have to be taken into account: (1) the adaptation rate (RsA) of the technical subsystem, and (2) the two different kinds of human influences on the technical subsystem: the explicit control rate (RhC) and the implicit adaptation rate (RhA). The main challenge of designing such a coupling is to avoid an unintended excelleration between both subsystems based on the closed loop coupling; with other words, what is the appropriate design for such kind of closed loop coupling?.How should be the relation [RhC + RhA] [RsA] established? Secondly, what is the proper balance between [RhC] [RhA]? These are two central research questions.