在可视化推荐中使用图形感知

Zehua Zeng, L. Battle
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引用次数: 0

摘要

不同的编码选择,这可以为可视化推荐工具的开发提供信息。然而,当我们调查当前的工具[2]时,我们注意到了一个令人惊讶的模式:在推荐视觉编码时,它们似乎很少引用图形感知的发现。这一结果引出了另一个重要问题:为什么目前的可视化推荐工具没有结合图形感知研究的实验结果和指南?一个自然的起点是回顾图形感知文献,找出哪些部分与可视化推荐工具最相关。这使我们回顾了132部关于图形感知的有趣作品[3],从可视化教科书到人们如何感知条形图的数十年实验,再到研究在可视化中添加图像或其他修饰时会发生什么,等等。工作的广度和深度有时是压倒性的,我们开始看到开发人员遇到的问题。例如,很难将与可视化推荐相关的论文(和教科书)与a的论文(或教科书)区分开来。数据继续以前所未有的速度增长,我们在帮助分析师理解它方面遇到了独特的挑战。一个主要的例子是将数据可视化,其中分析员可能不得不将数千个数据列和数十亿个数据记录减少为一个可视化。这通常涉及到选择要可视化的列;对数据进行采样、过滤或聚合,使其减少到可管理的记录数量;以及将结果映射到直观的视觉编码,例如位置轴、条高度或色调。每走一步,分析师都必须努力解决关注什么以及如何将关注转化为引人注目的图像。我们在图1中看到了这个问题的一小部分:我们可以为电影数据集生成许多不同的可视化,但默认的设计选择可能会有问题。例如,图1中的折线图只是一个蓝色像素的斑点。可视化工具如何帮助分析师在这个复杂甚至令人沮丧的互联设计决策网络中导航?我们已经看到可视化推荐工具的爆炸式增长,以应对这一挑战。这些工具旨在通过自动化部分甚至全部可视化设计过程来减少决策疲劳。我们根据这些工具的自动化目标总结了它们的行为[2]:关注数据的哪些部分(推荐数据列、行、查询等),应用哪些视觉编码(推荐比例、颜色、形状等),或者两者兼而有之。图形感知研究为什么当前的工具没有结合图形感知研究的实验结果和指南?在可视化推荐中使用图形感知
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Using Graphical Perception in Visualization Recommendation
different encoding choices, which could inform the development of visualization recommendation tools. However, when we surveyed current tools [2], we noticed a surprising pattern: They seem to reference few if any findings from graphical perception when recommending visual encodings. This result led us to another important question: Why aren’t current visualization recommendation tools incorporating experiment results and guidelines from graphical perception research? A natural starting point is to review the graphical perception literature and figure out which parts are most relevant to visualization recommendation tools. This led us to review 132 interesting works in graphical perception [3], from visualization textbooks to decadesold experiments of how people perceive bar charts to studies of what happens when you add iconography or other embellishments to visualizations, among others. The sheer breadth and depth of work was at times overwhelming, and we started to see the problems that developers were running into. For example, it’s a struggle to separate the papers (and textbooks) that are relevant to visualization recommendation from those that are A s data continues to grow at unprecedented rates, we encounter unique challenges in helping analysts make sense of it. A prime example involves visualizing the data, where an analyst may have to reduce thousands of data columns and billions of data records to a single visualization. This often involves selecting which columns to visualize; sampling, filtering, or aggregating the data down to a manageable number of records; and mapping the results to intuitive visual encodings such as positional axes, bar heights, or color hues. Every step of the way, the analyst must grapple with what to focus on and how to translate the focus into a compelling image. We see a small slice of this problem in Figure 1: We can generate many different visualizations for a movie dataset, but the default design choices can be problematic. For example, the line chart in Figure 1 is just a blob of blue pixels. How can visualization tools help analysts navigate this complex and even frustrating web of interconnected design decisions? We have seen an explosion of visualization recommendation tools responding to this challenge. These tools aim to reduce decision fatigue by automating part or even all of the visualization design process. We summarize how these tools behave based on what they aim to automate [2]: which parts of the data to focus on (recommending data columns, rows, queries, etc.), which visual encodings to apply (recommending scales, colors, shapes, etc.), or both. Graphical perception research Why aren’t current tools incorporating experiment results and guidelines from graphical perception research? Using Graphical Perception in Visualization Recommendation
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