Table of Contents
Fetching ...

Ambient Analytics: Calm Technology for Immersive Visualization and Sensemaking

Sebastian Hubenschmid, Arvind Srinivasan, Niklas Elmqvist, Dieter Schmalstieg, Michael Sedlmair

TL;DR

This column explores how visualizations can be harmoniously integrated into the authors' everyday life through augmented reality, progressing from visual analytics to ambient analytics.

Abstract

Augmented reality has great potential for embedding data visualizations in the world around the user. While this can enhance users' understanding of their surroundings, it also bears the risk of overwhelming their senses with a barrage of information. In contrast, calm technologies aim to place information in the user's attentional periphery, minimizing cognitive load instead of demanding focused engagement. In this column, we explore how visualizations can be harmoniously integrated into our everyday life through augmented reality, progressing from visual analytics to ambient analytics.

Ambient Analytics: Calm Technology for Immersive Visualization and Sensemaking

TL;DR

This column explores how visualizations can be harmoniously integrated into the authors' everyday life through augmented reality, progressing from visual analytics to ambient analytics.

Abstract

Augmented reality has great potential for embedding data visualizations in the world around the user. While this can enhance users' understanding of their surroundings, it also bears the risk of overwhelming their senses with a barrage of information. In contrast, calm technologies aim to place information in the user's attentional periphery, minimizing cognitive load instead of demanding focused engagement. In this column, we explore how visualizations can be harmoniously integrated into our everyday life through augmented reality, progressing from visual analytics to ambient analytics.
Paper Structure (22 sections, 6 figures)

This paper contains 22 sections, 6 figures.

Figures (6)

  • Figure 1: A future for ubiquitous visualizations supported through smart glasses may quickly lead to a cacophony of attention-grabbing notifications and visualizations. Image source: Keiichi Matsuda, Hyper-Reality, used with permission.
  • Figure 2: Three design dimensions for ambient analytics systems, illustrated with four scenarios. Degree of Ambience (vertical) captures how seamlessly the visualization integrates into its surroundings. Alignment of Context captures relevance to the user's primary task. Depth of Analysis captures the extent to which the sensemaking process is supported. Projection lines indicate each scenario's position along each axis.
  • Figure 3: Ambient displays can be used to depict energy usage through artistic renditions. Image source: Rodgers et al. rodgers2011exploring, used with permission.
  • Figure 4: Situated visualization on a track for conveying pacing information to runners. The study found all three situated visualizations (a. Speedometer, b. LaserBeam, c. ShrinkingLines) resulted in better or similar pace regularity compared to the traditional smartwatch methods. Image source: Li et al. li2025embedded, used with permission.
  • Figure 5: A study on AR guitar tutorials using fret highlighting found that simpler visualizations were preferred over detailed hand overlays, suggesting that reduced saliency can improve learning for fine-grained tasks. Image source: Skreinig et al. skreinig2023guitarhero, used with permission.
  • ...and 1 more figures