Becoming an expert in storytelling with data requires
practicing. Indeed,
Learners need to practice, to imitate well, to be highly motivated,
and to have the ability to see likenesses between dissimilar things in
[domains ranging from creative writing to mathematics] (Gaut
2014).
For practice, students are assigned four individual
homeworks, three of which relate to data graphics, and one relates to
written communication. Further, students become members of groups that
collectively write a proposal to a chief analytics officer, create an
interactive communication for a marketing executive, and present the
demonstrated value of their work to a chief executive officer. The
progression and grade weighting for each exercise follow:
Class discussions are an important component of
learning from one another. To facilitate these, we will discuss topics
during class. Along with dialogue during class, we will
collectively learn through polls and online
discussions. All these forms of particpation earn you grade
points.
Discussions are not meant to be an end, but a beginning, giving
students hand-selected, seminal and cutting-edge references to
read and study for the concepts discussed. Go down these rabbit
holes, following citations and studying the discussed material.
Of note: most of the references are available free on
an identified website and/or on Columbia University Library,
CLIO — use our library 🤓! For references not
available, I will upload a pdf/html file.
Lectures with discussion
Course overview: data analyses,
visualization, narrative. Jan
19
In our first discussion, we will learn about our collective
background and experiences. Then, we will introduce course objectives,
structure, deliverables, and tools. Finally, we will consider benefits
of storytelling and communication in applied analytics, and briefly
introduce workflow and software (e.g., R and Python) for the
visualization component of the course.
Before your first class, get yourself familiar with the course
website, begin to setup your computing
environment. Read (Spencer 2021, secs. 1–1.2.2). Say hello
on Ed
Discussion.
Supplemental resources
Data types; coordinates; visual
encodings; grammar of graphics. Jan
26
Data visualization is the presentation of data as graphical
encodings. In this discussion, we will introduce a purpose for data
visuals. Then, we consider various components and ways of thinking about
their construction, including use of coordinate systems, data encodings,
the grammar of graphics. Once we consider the basics of these
components, we will practice identifying and using them while exploring
data related to our class example case study.
Read Spencer (2021), Sec. 2-2.1.2.3 to become familiar
with visual variables and the grammar of graphics, and Wickham,
Navarro, and Lin (2021) Sec. 1.2 and 13 to become familiar
with the underlying components of a graphic. If you have not already,
start working to understand the code I gave you in homework one
(remember, you should be learning from my code, not merely answering
questions).
Supplemental resources
Encoding with color; design
principles; comparing encoded data. Feb
2
Continuing our discussion on visual channels for encoding, this
session we will focus on three channels of color: hue, chroma
(saturation), and luminance. Then, we consider empirical studies on the
effectiveness in using encodings and their limitations. Third, we will
consider elements of design we can use for our data graphics. Finally,
we will practice these concepts.
Read Spencer (2021), § 2.1.3.1 - 2.2.4 for an overview
of the material; Heer and Bostock
(2010) (find it in Clio) to understand
one way we can empirically test the effectiveness of a graphical
decoding and comparison and to learn what kinds of encodings have less
error in decoding; and Edward R. Tufte (2001b) for understanding how to
experiment with graphics to improve our communications.
Supplemental resources
So far, we’ve been concerned with understanding tools and language
for mapping or encoding data to visual channels of graphics. In this
discussion, we’ll begin to shift our focus from exploring data with
graphics to explaining those graphics. Specifically, we consider our
audience in redesigning exploratory graphics for purposes of
communication, discuss how to address complexity of graphics for an
audience, and begin to more substantially consider graphics as driving a
narrative. We’ll begin with annotating graphics, and creating a
hierarchy of information.
Read Spencer (2021), § 1.4.1, 1.4.4-1.4.5, 2.1.4 for
an overview of the material; Doumont (2009c) for understanding the
fundamentals of all modes of communication; and Lupi (2015) to gain an information designer’s
perspective on how information is layered to form a complete
narrative.
Supplemental resources
Elements of writing. Feb 16
Annotated graphics sometimes stand-alone. But graphics can also
benefit from, and add value to, written narrative. Here, we will explore
elements of writing, work through example memos as a means of
communicating an idea for a data analytics project to an analytics
executive. As a group exercise, we will revise an analytics proposal
writeup for a new audience.
Read Spencer (2021), § 1.1-1.3 for an overview; Sharot (2017a) to
understand what factors or circumstances change audience’s minds, and
consider how her insights relate to Doumont’s advice to begin
communications by finding “common ground”; Storr (2020a) to understand how we might follow
Doumont’s advice to “get our audience to pay attention…”; Booth et al.
(2016) to improve how we structure each
sentence and paragraph; Zetlin (2017) to categorically understand our
first audience: analytics executives.
Supplemental resources
Numeracy in narratives;
composition and layout. Feb 23
In a multimodal document, tables and data-driven graphics can add
context and illustrate the text, and vice versa. Here, we begin to draw
from prior discussions in both data graphics and written narrative. We
will consider how to apply visual design to a multi-component document
containing text and data, and integrate text and visual information.
We will discuss how layout design and typography can work together to
integrate visuals with narrative content, and will enable a deeper
exploration of data-driven visual design.
Read Spencer (2021), § 1.4 for an overview; J. E.
Miller (2007) to consider design of tables;
Edward R. Tufte (2001a) for integrating data visuals and
tables with narratives; and skim Butterick (2018) to become aware of what
typographic choices influence readability (ergo, attention and
understanding) for our audiences.
Supplemental resources
Effective business writing with
audience analysis. Mar 2
We will continue discussing the elements of effective business
writing for a particular audience and purpose, and learn about the role
of revision and getting feedback on your writing.
Read Spencer (2021), § 1.2-1.3 for an overview; Graff,
Birkenstein, and Gillen (2021) to learn to place your data
communication in the context of previous work and give yours purpose;
Doumont (2009b) for another perspective on how to
structure business documents.
Supplemental resources
Communicating context,
uncertainty, and variation. Mar
9
We’ve discussed the importance of comparison and context, whether
communicating with words, visual encodings of data, or both. We’ll
discuss combining graphics together and within a larger narrative to
communicate context, uncertainty, and variation.
Read Spencer (2021), § 2.4 for an overview; Nolan and
Stoudt (2021c) for describing statistical
concepts; explore examples from the R package Kay (2021) for various choices in visually
communicating uncertainty; and Lupi (2016) to expand upon the importance of
context for data.
Supplemental resources
Foundations of interactive
design. Mar 23
In our discussion, we consider the foundations of modern user
interaction in the context of data-driven, visuals and narratives. Such
interactions may include scrolling, overview, zoom, filter,
details-on-demand, relation, history, extraction; brushing and linking;
hovering; clicking; selecting; and gestures. Part of allowing
interaction results in authors having less control over the intended
narrative and, thus, may think about interaction as giving the audience
some level of co-creation in the narrative.
Read Spencer (2021), § 3-3.1 for an overview; explore
Hohman et al.
(2020) for best practice examples in
communicating with interactivity; Tominski and Schumann (2020), § 4-4.1 to understand
interactivity.
Supplemental resources
Interactivity is inherently technology dependent. We discuss modern
approaches to interactivity as related to data-driven, visual graphics
and narratives. As such, we will introduce a modern technology
stack that includes html
, css
,
svg
, and javascript
, within which technologies
like d3.js
(a javascript library) and
processing
operate. Most award-winning interactive
graphics, especially from leading news organizations, use this
stack.
But we can enable interactivity through interfaces, too, from
R
and Python
interactive and markdown
notebooks and code, to htmlwidgets
, Shiny
, and
plotly
. Then, we have drag-and-drop alternatives like
Lyra2
or Tableau
. While Tableau
is functionally much more limited, a use-case for Tableau may be, for
example, when a client has a license for it, wants basic interactivity
for someone else to setup the visual with interactive options. The range
of tools is becoming ever larger. More generally, knowing a range of
tools will help us not only build our own interactive graphics, but will
also help us work with specialists of these technologies.
From our discussions of the principles and tools of interactivity
with data graphics, and ways we can give them organization, we begin
considering how to include these tools and concepts to guide our
audience in our communications. How should be think about organizing
interactive graphics? Would a “dashboard” or “scrollytelling” be useful?
Does it depend on our audience and their goals? How should we guide our
readers both through the graphics and in their use of interactivity?
Consider the ideas and examples from our readings.
Read Spencer (2021), § 3.2-3.3 for an overview;
explore Gohel and Skintzos (2021) for extending the grammar of
graphics interactively; explore the various types of interactive,
visualization tools in the table of tools of our topical
resources; review McKenna et al. (2017) for an understanding on factors
that can shape the flow of your data-driven stories.
Supplemental resources
Pacing and animation,
interactive docs, story. Apr 6
In this lecture, we’ll continue discussing interactive communication.
First, we’ll peek inside the tech of scrollytelling as a form of
communication. Then, we’ll consider how animation and pacing can help
our audiences follow our messages. Finally, we will dig into approaches
to creating an interactive story.
Read Spencer (2021), § 3.3, 4-4.1 for an overview;
review Nolan
and Stoudt (2021b) for ideas on how to begin
composing a data story; watch Chu (2016) for thoughts about how animation
and pacing can help our audiences follow our stories.
Supplemental resources
User-centered, content design;
multi-modal presentations. Apr
13
Now, for the last few weeks, we’ve been working hard to learn an
entire stack of technologies that, taken together, enable interactivity
in our communications. And this builds on all the best practices we’ve
already been diligently practicing. I’m certain that the last few weeks
has been a challenge to become more proficient with these tools, and
that’s made it an accomplishment just to get these things working, much
more putting them to use in communications.
In this discussion, we will consider how to help one another through
user-centered, content design, and pairwise prototyping. Finally, we
will wrap by considering some ideas on how we combine verbal with the
data visual: think multi-modal presentations.
Read Spencer (2021) § 4.2 for an overview; skim J.
Schwabish (2016) for ideas on preparing, creating,
and delivering presentations. Compare similarities and
differences in style, audience, and usage of slides and visuals
as described in J. Schwabish (2016) (practiced here) with those
created and presented in this course, those created and presented by Lisa
Charlotte Muth, and those by Nadieh
Bremer.
Supplemental resources
Team presentations. Apr 20
Academic Integrity
Columbia University expects its students to act with honesty and
propriety at all times and to respect the rights of others. It is
fundamental University policy that academic dishonesty in any guise or
personal conduct of any sort that disrupts the life of the University or
denigrates or endangers members of the University community is
unacceptable and will be dealt with severely. It is essential to the
academic integrity and vitality of this community that individuals do
their own work and properly acknowledge the circumstances, ideas,
sources, and assistance upon which that work is based. Academic honesty
in class assignments and exams is expected of all students at all
times.
SPS holds each member of its community responsible for understanding
and abiding by the SPS
Academic Integrity and Community Standards. You are required to read
these standards within the first few days of class. Ignorance of the
School’s policy concerning academic dishonesty shall not be a defense in
any disciplinary proceedings.
Grading policy
Final grades will be assigned from your overall percentage,
calculated as a weighted average of your assignments (individual 40%,
group 50%) and participation (10%):
Grade | Precentage |
A+ | [98,100] |
A | [93,98) |
A- | [90,93) |
B+ | [87,90) |
B | [83,87) |
B- | [80,83) |
C+ | [77,80) |
C | [73,77) |
C- | [70,73) |
D | [60,70) |
F | [0,60) |
Late submissions of the homework assignments will be subject to an
automatic 10% penalty per day and will not be accepted once the
next class discussion begins (as we will typically discuss
answers). Late submissions of the final project will not be
accepted.
Participation
It is important to attend the lectures and read the readings. Each
lecture will assume that you have read and are ready to discuss the
week’s readings.
Class participation includes both in-class activities
(e.g., through polls and
group work) and engagement on the class online
discussion. To foster a shared learning experience, all
enrolled students are required to submit at least one substantive
discussion post per week related to the course readings or lecture
material. Thoughtful comments typically exhibit one or more of the
following:
- Generalizing from examples in discussion or readings
- Devising examples from general principles discussed or in
readings
- Critiques of arguments made in the readings
- Analysis of implications or future directions for work discussed in
lecture or readings
- Clarification of some point or detail presented in class
- Insightful questions about the readings or answers to other people’s
questions
- Links to web resources or examples that pertain to a lecture or
reading
Assignments
Individual practice
Find individual assignments in the menu bar at the top.
Homework 1 — graphics
Homework 2 — graphics
Homework 3 — writing
Group project
Find group project deliverables in the menu bar at the top.
Office hours
Use our office appointment calendars to schedule a one-on-one with Dr. Spencer
or Dr. Scherling and
include a message that explains what you’d
like to discuss. If no available time works for you, then email us with
your reason for our meeting and some available times that work for
you.
Albers, Josef. 2006.
Interaction of Color.
Yale University Press.
https://clio.columbia.edu/catalog/7731665.
Anderson, E. W., K. C. Potter, L. E. Matzen, J. F. Shepherd, G. A.
Preston, and C. T. Silva. 2011.
“A User Study of
Visualization Effectiveness Using EEG and Cognitive
Load.” Computer Graphics Forum 30 (3): 791–800.
https://doi.org/10.1111/j.1467-8659.2011.01928.x.
Arslan, Engin. 2018.
Learn Javascript with P5.js:
Coding for Visual Learners.
New York, NY:
Springer Science+Business Media.
https://clio.columbia.edu/catalog/13252591.
Attardi, Joe. 2020.
Modern CSS: Master the Key Concepts
of CSS for Modern Web Development.
https://clio.columbia.edu/catalog/15463107.
Bellamy-Royds, Amelia, Kurt Cagle, and Dudley Storey. 2018.
Using
SVG with Css3 and Html5 :
Vector Graphics for Web Design.
O’Reilly.
https://www.oreilly.com/library/view/using-svg-with/9781491921968/.
Bertin, Jacques. 2010.
Semiology of Graphics: Diagrams
Networks Maps.
Redlands:
ESRI Press.
https://clio.columbia.edu/catalog/13599355.
Booth, Wayne C, Gregory G Columb, Joseph M Williams, Joseph Bizup, and
William T Fitzgerald. 2016.
“Revising Style:
Telling Your Story Clearly.” In
The
Craft of Research, Fourth.
University of Chicago Press.
https://clio.columbia.edu/catalog/14295943.
Boronine, Alexei. 2012.
“Color Spaces for Human Beings.”
HSLuv.org. March 26, 2012.
https://www.hsluv.org.
Bremer, Nadieh, and Shirley Wu. 2021.
Data Sketches A
Journey of Imagination,Exploration, and
Beautiful Data Visualizations. Milton, UNITED
KINGDOM:
A K Peters/CRC Press.
https://www.datasketch.es.
Butterick, Matthew. 2018.
“Butterick’s Practical
Typography.” 2018.
https://practicaltypography.com/.
Chu, Tony. 2016.
“Animation, Pacing, and
Exposition.” OpenVis Conf 2016, May 13.
https://www.youtube.com/watch?v=Z4tB6qyxHJA.
Cleveland, William S, and Robert McGill. 1984.
“Graphical
Perception: Theory,
Experimentation, and Application to the
Development of Graphical Methods.”
Journal of the American Statistical Association 79 (387):
531–54.
https://www-jstor-org.ezproxy.cul.columbia.edu/stable/2288400?pq-origsite=summon&seq=1#metadata_info_tab_contents.
———. 1987.
“Graphical Perception: The Visual
Decoding of Quantitative Information on
Graphical Displays of Data.”
Journal of the Royal Statistical Society. Series A 150 (3):
192–229.
https://www-jstor-org.ezproxy.cul.columbia.edu/stable/2981473?pq-origsite=summon&seq=1#metadata_info_tab_contents.
Correll, Michael, Dominik Moritz, and Jeffrey Heer. 2018.
“Value-Suppressing Uncertainty Palettes.” In
Proceedings of the 2018 CHI Conference on Human
Factors in Computing Systems - CHI
’18, 1–11. Montreal QC, Canada: ACM
Press.
Cox, Amanda. 2011.
“Shaping Data for the News.” Presented
at the Eyeo
Festival, September 21.
https://vimeo.com/29391942.
Doumont, Jean-Luc. 2009a.
“Effective Oral Presentations.”
In
Trees, Maps, and Theorems, 85–119.
Effective Communication for Rational Minds.
Principiæ.
https://clio.columbia.edu/catalog/11663244.
———. 2009b.
“Effective Written Documents.” In
Trees, Maps, and Theorems. Effective
Communication for Rational Minds.
Principiæ.
http://ssp3nc3r.github.io/comm-course-ds/references/Doumont-2009-effective-written-documents.pdf.
———. 2009c.
“Fundamentals.” In
Trees,
Maps, and Theorems. Effective
Communication for Rational Minds.
Principiæ.
http://ssp3nc3r.github.io/comm-course-ds/references/Doumont-2009-Fundamentals.pdf.
Drasner, Sarah. 2017.
SVG Animations: From Common
UX Implementations to Complex Responsive Animation.
http://site.ebrary.com/id/11363809.
Duckett, Jon. 2011.
HTML & CSS.
Design and Build Websites.
Wiley.
https://www.htmlandcssbook.com.
Duckett, Jon, Gilles Ruppert, and Jack Moore. 2014.
JavaScript & jQuery:
Interactive Front-End Web Development. Indianapolis,
IN: Wiley.
Fay, Colin, Vincent Guyader, Sebastien Rochette, and Girard Cervan.
2021.
Engineering Production-Grade Shiny Apps. First edition. R
Series.
Boca Raton:
CRC Press.
https://engineering-shiny.org.
Gaut, Berys. 2014.
“Educating for Creativity.”
In
The Philosophy of Creativity: New Essays, edited by Elliot
Samuel Paul, 265–87.
New York:
Oxford University
Press.
https://clio.columbia.edu/catalog/10983870.
Gohel, David, and Panagiotis Skintzos. 2021.
Ggiraph:
Make ’Ggplot2’ Graphics Interactive. Manual.
https://davidgohel.github.io/ggiraph.
Graff, Gerald, Cathy Birkenstein, and Christopher Gillen. 2021.
“The Data Suggest: Writing in the
Sciences.” In
"They Say /
I Say": The Moves That Matter in Academic Writing,
Fifth Edition, 250–68.
New York:
W.W. Norton &
Company.
http://ssp3nc3r.github.io/comm-course-ds/references/Graff-and-Birkenstein-2021-The-Data-Suggest-Writing-in-the-Sciences.pdf.
Heer, Jeffrey, and Michael Bostock. 2010.
“Crowdsourcing
Graphical Perception: Using Mechanical Turk to
Assess Visualization Design.” In
Proceedings of
the Sigchi Conference on Human Factors in Computing Systems,
203–12.
https://doi.org/10.1145/1753326.1753357.
Heer, Jeffrey, and Ben Shneiderman. 2012.
“Interactive
Dynamics for Visual Analysis: A
Taxonomy of Tools That Support the Fluent and Flexible Use of
Visualizations.” Queue 10 (2): 30–55.
https://doi.org/10.1145/2133416.2146416.
Hohman, Fred, Matthew Conlen, Jeffrey Heer, and Duen Chau. 2020.
“Communicating with Interactive Articles.”
Distill 5 (9): 10.23915/distill.00028.
https://doi.org/10.23915/distill.00028.
Hullman, Jessica, and Andrew Gelman. 2021a.
“Designing for
Interactive Exploratory Data Analysis Requires Theories of
Graphical Inference.” Harvard Data Science
Review, no. 3.3 (July).
https://doi.org/10.1162/99608f92.3ab8a587.
———. 2021b.
“Challenges in Incorporating Exploratory Data
Analysis into Statistical Workflow.”
Harvard Data Science Review, no. 3.3 (July).
https://doi.org/10.1162/99608f92.9d108ee6.
Janert, Philipp K. 2019.
D3 for the Impatient: Interactive Graphics
for Programmers and Scientists. First edition.
Sebastopol,
CA:
O’Reilly Media, Inc.
https://www.oreilly.com/library/view/d3-for-the/9781492046783/.
Kahneman, Daniel. 2013.
Thinking, Fast and
Slow.
Farrar, Straus and Giroux.
https://clio.columbia.edu/catalog/9041682.
Kay, Matthew. 2021.
Ggdist: Visualizations of
Distributions and Uncertainty. Manual.
https://doi.org/10.5281/zenodo.3879620.
Kelleher, John D, and Brendan Tierney. 2018.
“What Are
Data, and What Is a Data Set?”
In
Data Science.
MIT Press.
https://clio.columbia.edu/catalog/15244606.
Ko, Amy J. 2020.
“Design Methods: What
Design Is and How to Do It.” Book. September 2020.
https://faculty.washington.edu/ajko/books/design-methods/.
Koponen, Juuso, and Jonatan Hildén. 2019.
Data Visualization
Handbook. First.
Finland:
Aalto Art
Books.
https://clio.columbia.edu/catalog/15324564.
Leborg, Christian. 2004.
Visual Grammar.
Princeton Architectural Press.
https://clio.columbia.edu/catalog/SCSB-8748869.
Loukissas, Yanni A. 2019. All Data Are Local: Thinking Critically in
a Data-Driven Society. Cambridge, Massachusetts:
The MIT Press.
Lupi, Giorgia. 2015.
“The Architecture of a
Data Visualization: Multilayered Storytelling Through
"Info-spatial" Compositions,”
February.
https://medium.com/accurat-studio/the-architecture-of-a-data-visualization-470b807799b4.
———. 2016.
“DATA HUMANISM: The Revolution Will
Be Visualized.” Print 70 (3): 76–85.
https://www.printmag.com/post/data-humanism-future-of-data-visualization.
Maynard-Atem, Louise, and Ben Ludford. 2020.
“The
Rise of the Data Translator.”
Impact 2020 (1): 12–14.
https://doi.org/10.1080/2058802X.2020.1735794.
McKenna, S., N. Henry Riche, B. Lee, J. Boy, and M. Meyer. 2017.
“Visual Narrative Flow: Exploring Factors
Shaping Data Visualization Story Reading Experiences.”
Computer Graphics Forum 36 (3): 377–87.
https://doi.org/10.1111/cgf.13195.
Meeks, Elijah. 2018.
D3.js in Action. Second.
Manning.
https://clio.columbia.edu/catalog/13262511.
Meirelles, Isabel. 2013.
Design for Information.
An Introduction to the Histories, Theories, and Best Practices Behind
Effective Information Visualizations.
Rockport.
https://clio.columbia.edu/catalog/14060225.
Miller, Jane E. 2007.
“Organizing Data in
Tables and Charts: Different
Criteria for Different Tasks.” Teaching
Statistics 29 (3): 98–101.
https://onlinelibrary-wiley-com.ezproxy.cul.columbia.edu/doi/full/10.1111/j.1467-9639.2007.00275.x.
———. 2013a.
“Seven Basic Principles.” In
The
Chicago Guide to Writing about Multivariate Analysis,
Second edition, 13–33. Chicago Guides to Writing, Editing, and
Publishing.
Chicago:
University of Chicago
Press.
https://clio.columbia.edu/catalog/12494729.
———. 2013b.
The Chicago Guide to Writing about
Multivariate Analysis. Second edition. Chicago Guides to Writing,
Editing, and Publishing.
Chicago:
University of
Chicago Press.
https://clio.columbia.edu/catalog/12494729.
Miller, Joshua B., and Andrew Gelman. 2020a.
“Laplace’s
Theories of Cognitive Illusions,
Heuristics and Biases.” Statist.
Sci. 35 (2): 159–70.
https://doi.org/10.1214/19-STS696.
———. 2020b.
“Rejoinder: Laplace’s Theories of
Cognitive Illusions, Heuristics and Biases.” Statist.
Sci. 35 (2): 175–77.
https://doi.org/10.1214/20-STS779.
Müller-Brockmann, Josef. 1996.
Grid Systems in Graphic Design.
A Visual Communication Manual for Graphic Designers, Typographers, and
Three Dimensional Designers.
ARTHUR NIGGLI LTD. https://clio.columbia.edu/catalog/10489438.
Munzner, Tamara. 2014. Visualization Analysis and
Design. CRC Press.
Murray, Scott. 2017.
Interactive Data Visualization for
the Web. Second. An Introduction to Designing with
D3.
O’Reilly.
https://clio.columbia.edu/catalog/13626017.
Nolan, Deborah, and Sara Stoudt. 2021a.
Communicating with
Data: The Art of Writing for
Data Science. 1st ed.
Oxford University
Press.
https://doi.org/10.1093/oso/9780198862741.001.0001.
———. 2021b.
“Composing a Story.” In
Communicating with
Data: The Art of Writing for
Data Science, 1st ed.
Oxford University
Press.
https://doi.org/10.1093/oso/9780198862741.001.0001.
———. 2021c.
“Taking Care with Statistical
Terms.” In
Communicating with Data:
The Art of Writing for Data
Science, 1st ed., 203–31.
Oxford University
Press.
https://doi.org/10.1093/oso/9780198862741.001.0001.
Rahlf, Thomas. 2019.
Data Visualization with
R — 111 Examples.
S.l.:
Springer
Nature.
https://link-springer-com.ezproxy.cul.columbia.edu/book/10.1007%2F978-3-030-28444-2.
Reas, Casey, and Ben Fry. 2014.
Processing A
Programming Handbook for Visual Designers and Artists. Second.
The MIT Press.
https://clio.columbia.edu/catalog/11370280.
Richards, Sarah. 2017.
Content Design.
Content Design London. https://contentdesign.london/store/the-content-design-book.
Schneiders, Pascal. 2020.
“What Remains in
Mind? Effectiveness and
Efficiency of Explainers at Conveying
Information.” MaC 8 (1): 218–31.
https://doi.org/10.17645/mac.v8i1.2507.
Schwabish, Jonathan. 2016.
Better Presentations:
A Guide for Scholars,
Researchers, and Wonks.
Columbia
University Press.
https://clio.columbia.edu/catalog/13250860.
Schwabish, Jonathan A. 2021.
Better Data Visualizations: A Guide for
Scholars, Researchers, and Wonks.
New York:
Columbia University Press.
https://clio.columbia.edu/catalog/15473733.
Sharot, Tali. 2017a.
“Tali Sharot: Intelligent
People Have Greater Difficulty Changing Their Beliefs.”
Presented at the World
Economic Forum,
Davos-Klosters, Switzerland, February 14.
https://www.youtube.com/watch?v=UkdrZ9d3j6g.
———. 2017b.
“(Priors) Does Evidence Change
Beliefs?” In
The Influential Mind.
What the Brain Reveals about Our Power to Change Others.
Henry
Holt and Company.
https://us.macmillan.com/books/9781250159618/theinfluentialmind.
Shneiderman, B. 1996.
“The Eyes Have It: A Task by Data Type
Taxonomy for Information Visualizations.” In
Proceedings 1996
IEEE Symposium on Visual Languages,
336–43.
Boulder, CO, USA:
IEEE Comput. Soc.
Press.
https://doi.org/10.1109/VL.1996.545307.
Sievert, Carson. 2020.
Interactive Web-Based Data Visualization with
R, Plotly, and Shiny.
Boca Raton, FL:
CRC Press, Taylor and Francis Group.
https://plotly-r.com.
Spencer, Scott. 2019.
“Approximating the Components of
Lupi’s Nobels, No
Degrees.” P( ssp3nc3r | Columbian ). March
15, 2019.
https://ssp3nc3r.github.io/post/approximating-the-components-of-lupi-s-nobel-no-degrees/.
———. 2020b.
“HSLuv: An R Package to
Convert HSLuv Colorspace to RGB and
Hex.” P( ssp3nc3r | Columbian ). March 30, 2020.
https://ssp3nc3r.github.io/post/2020-03-30-hsluv-an-r-package-to-convert-hsluv-colorspace-to-rgb-and-hex/.
Storr, Will. 2020a.
“1.0 Where Does Story Begin? 1.1
Moments of Change; the Control-Seeking Brain. 1.2
Curiosity.” In
Science of Storytelling.
New York, NY:
Abrams Books.
http://ssp3nc3r.github.io/comm-course-ds/references/Storr-2020-story-begin-change-gaps.pdf.
———. 2020b.
Science of Storytelling.
New York, NY:
Abrams Books.
https://clio.columbia.edu/catalog/14924581.
Tominski, Christian, and Heidrun Schumann. 2020.
Interactive Visual
Data Analysis. 1st ed.
Boca Raton:
CRC
Press.
https://clio.columbia.edu/catalog/14804802.
Tufte, Edward. 2016.
“The Future of Data
Science.” Presented at the Microsoft
Machine
Learning &
Data Science Summit,
Seattle,
Washington.
https://youtu.be/rHUDJ8RyseQ.
Tufte, Edward R. 2020.
“Smarter Presentations and Shorter
Meetings.” In
Seeing with Fresh Eyes: Meaning, Space, Data,
Truth, 151–61.
Cheshire, Conn.:
Graphics
Press.
https://www.edwardtufte.com/tufte/seeing-with-fresh-eyes.
———. 1997.
Visual Explanations. Images and
Quantities, Evidence and Narrative.
Graphics Press.
https://clio.columbia.edu/catalog/1968062.
———. 2001a.
“Aesthetics and Technique in Data
Graphical Design.” In
The Visual Display of
Quantitative Information, 176–90.
Graphics Press.
http://ssp3nc3r.github.io/comm-course-ds/references/Tufte-2001-Aesthetics-and-Technique-in-Data-Graphical-Design.pdf.
———. 2001b.
“Data-Ink Maximization and
Graphical Design.” In
The Visual Display of
Quantitative Information, 1–15.
Graphics Press.
http://ssp3nc3r.github.io/comm-course-ds/references/Tufte-2001-Data-Ink-Maximization-and-Graphical-Design.pdf.
———. 2001c.
The Visual Display of Quantitative
Information. Second.
Graphics Press.
https://clio.columbia.edu/catalog/195232.
———. 2006.
“The Cognitive Style of
PowerPoint: Pitching Out Corrupts
Within.” In
Beautiful Evidence.
Graphics Press.
https://clio.columbia.edu/catalog/8838638.
Tversky, Barbara, Julie Bauer Morrison, and Mireille Betrancourt. 2002.
“Animation: Can It Facilitate?” International Journal
of Human-Computer Studies 57 (4): 247–62.
https://doi.org/10.1006/ijhc.2002.1017.
Vaidyanathan, Ramnath, Yihui Xie, JJ Allaire, Joe Cheng, Carson Sievert,
and Kenton Russell. 2020.
Htmlwidgets: HTML Widgets for
r. Manual.
https://www.htmlwidgets.org.
Wickham, Hadley. 2010.
“A Layered Grammar of
Graphics.” Journal of Computational and
Graphical Statistics 19 (1): 3–28.
https://doi.org/10.1198/jcgs.2009.07098.
———. n.d.
“Create Elegant Data Visualisations Using
the Grammar of Graphics • Ggplot2.”
Accessed February 26, 2021.
https://ggplot2.tidyverse.org/.
Wickham, Hadley, Danielle Navarro, and Thomas Lin. 2021.
Ggplot2:
Elegant Graphics for Data Analysis. Third.
Springer.
https://ggplot2-book.org/.
Wilke, C. 2019.
Fundamentals of Data Visualization: A Primer on
Making Informative and Compelling Figures. First edition.
Sebastopol, CA:
O’Reilly Media.
https://clauswilke.com/dataviz/.
Wilkinson, Leland. 2005.
The Grammar of
Graphics. Second.
Springer.
https://clio.columbia.edu/catalog/7899682.
Yi, Ji Soo, youn ah Kang, John T Stasko, and Julie A Jacko. 2007.
“Toward a Deeper Understanding of the
Role of Interaction in Information
Visualization.” IEEE 13 (6): 1224–31.
https://doi.org/10.1109/TVCG.2007.70515.
Zinsser, William. 2001.
“The Lead and the
Ending.” In
On Writing Well,
Sixth. The Classic Guide to Writing Nonfiction.
Harper
Resource.
https://clio.columbia.edu/catalog/15513137.