The scope of ACS Nanoscience
Au covers a wide range of scientific and engineering disciplines.
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Readers of this journal will appreciate that
the growing collection of published articles is topically diverse;
the same is true for other journals that serve and integrate multiple
research fields. The papers that stand out most are those that draw
in and engage the largest number of readers across multiple disciplines.
Having a paper appeal to this so-called “broad audience”
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is an important consideration for publication
in ACS Nanoscience Au, given the inherently interdisciplinary
nature of the field. Certain topics naturally lend themselves to being
of interest to a broad audience because they have relevance to society
or are particularly timely, such as articles discussing COVID-19 mitigation,
testing, and treatment in recent years. Beyond such topics, though,
what can authors do to ensure that the widest possible audience notices,
engages with, and understands the research described in their papers?
Let us consider how readers get their first impressions of an article.
Many will begin by looking at the Title and the Table of Contents
graphic. If those look interesting, they will then read the Abstract.
If the Abstract grabs their attention, they will begin to peruse the
paper by skimming the Introduction, browsing the Figures, and perhaps
reading the Conclusions. Most readers will only invest in reading
the paper in depth if they remain engaged after these initial “triage”
steps. Several factors can contribute to whether or not they choose
to do so. Some will read it in-depth because they need to; this is
typically the case for those in the same or allied research fields
who have sought out or come across the paper because of how closely
it relates to their own research—this is the so-called “specialized
audience.” Others—the broader audience—will desire
to read it because it looks interesting, catches their attention or
intrigues them in some way, and/or is related to their research but
is tangential to their expertise. The latter case is often true for
nanoscience and nanoengineering papers, where researchers may be familiar
with the various facets of a multidisciplinary field but are not experts
in them. In general, specialists will already be hooked because of
the topic, so let us consider strategies to help make a paper appeal
to this broader audience, as this is what will maximize
the impact and reach of the work.
Note that many other helpful
Editorials have been written on topics
relevant to those mentioned below, including Titles and Table of Contents
Graphics,
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Abstracts,
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Figures,
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and Methods sections,
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as well as
writing manuscripts in general.
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Table of Contents Graphic. We visually engage with
large amounts of information very quickly, with content scrolling
down our smartphones, tablets, and computers at breakneck speed. We
make split-second decisions about what content to engage with based
on what we see. This is where Table of Contents graphics come into
play—it is the visual bait that grabs a reader’s attention
and lures them in. For some readers that are part of the broader audience,
this graphic is the primary means by which they will decide which
articles outside of their specialization to engage with. This is also
the key image that will accompany the Title of your work in any promotion
from ACS via email or social media. The image should
be visually appealing and easy to decipher, highlighting the story
and/or key result in the paper. Try to avoid overly technical content,
complex plots, large amounts of text, or gimmicky figures and cartoons
that obscure the key findings of the work.
Title. The Title is the first text-based description
of a paper that readers see. Titles that are accurate and descriptive
but concise are important; this can be achieved while also maximizing
appeal to a broad audience. Consider the following three Titles for
a (hypothetical) paper that describes the synthesis of cadmium sulfide
quantum dots having different sizes, along with a study of their size-dependent
photoluminescent properties: “Synthesis and Properties of Cadmium
Sulfide Nanoparticles,” “Synthesis and Optical Properties
of Cadmium Sulfide Nanoparticles Having Different Sizes,” and
“Synthetic Control of Photoluminescence in Size-Tunable Cadmium
Sulfide Quantum Dots.” The first Title is insufficiently descriptive,
as “properties” is generic, and the size dependence
is not mentioned. The second Title is better, as it mentions that
the properties are optical and that different particle sizes are included.
The third Title, however, incorporates all of these descriptors (with
even greater specificity) while also being more intriguing. The third
Title is most likely to appeal to a larger number of readers.
Abstract. The Abstract provides a summary of the article
and is often limited to 150–250 words. While this may seem
like a lot of text, it is actually quite short when considering all
aspects of an article that could be summarized! Authors sometimes
focus almost exclusively on the technical content so that all of the
results are adequately described. It is always important to include
the key results in the Abstract, of course, but if one of the goals
of a paper is also to appeal to a broader audience, it is important
to draw in additional readers by providing context that specialists
in the field may not need. Including a one-line summary of the context
from the Introduction, along with a brief summary of the Discussion
and forward-looking Conclusions, helps make an Abstract well-rounded
and appealing to a broad audience.
Introduction. The Introduction provides the relevant
background information and context that frame the research that the
paper is reporting, as well as insights into the significance and
novelty of the work. Specialists in the field likely already know
much of the literature and may immediately appreciate how this new
research fits into the field, but other readers may not. Therefore,
it is helpful to begin with the big picture of the work. It is probably
not necessary to start at too high of a level, i.e., “Nanoparticles
are pieces of matter that have dimensions on the order of 1–100
nm and are used in many applications...,” but rather with something
that provides an accurate big-picture introduction to the specific
research that will be described, i.e., “Semiconductor nanoparticles
have revolutionized applications ranging from biological imaging to
display technologies...” It is also helpful to explicitly state
why the work is important and what its implications are. For research
fields in which there is a dauntingly large number of publications,
it is particularly useful to articulate what is unique about the research
described in the paper, how it is different from what has been reported
before, and why it is significant. This approach makes these key aspects
of the research clear to readers, rather than making them guess or
presuming they already know. Overall, an effective Introduction has
all the information that specialists would want to see, while also
having sufficient bigger-picture context and explicit statements defining
significance, impact, and implications so that nonspecialists are
brought up to speed before diving into the Results and Discussion
section. Note that Letters do not have these formal subdivisions,
but they should still have these components.
Results and
Discussion. The Results and Discussion
section takes readers on a journey through the data. The Figures show
the data, while the Results and Discussion section presents, analyzes,
and contextualizes the data. In most cases, specialists in a field
will already be very familiar with the type of data—how it
was collected, how to interpret it, and what it means. Nonspecialists
may have some familiarity with the type of data but generally benefit
from some additional insight to fully appreciate its significance.
It is often possible to include this extra information without having
to write a large amount of additional text. For example, saying “The
XRD pattern in Figure 1 indicates that the nanoparticles have an average
diameter of 10 nm.” is useful for specialists who know how
such information can be obtained from analysis of XRD peak widths.
However, a slightly expanded version is more approachable to readers
who are new and/or tangential to the field: “The XRD pattern
in Figure 1 indicates that the nanoparticles have an average diameter
of 10 nm, based on Scherrer analysis of the peak widths.” These
minor additions can make a big difference to your readers on the peripheries
of your field. It can be helpful to consider aspects of the Results
and Discussion to be a form of teaching—clearly and concisely
instructing readers in what they need to know (including rationale
for experiments and analyses) to understand, appreciate, and learn
from the research you are reporting.
Figures. Figures
should clearly and accurately show
the data that is discussed in the paper. Beyond that requirement,
the design and layout of the figures can help to draw in readers and
make the data easier to follow, analyze, and interpret—or it
can make it more difficult! Ensuring that figures are easy to follow,
especially when coupled with the text in the Results and Discussion
section, is helpful to all readers, but particularly to nonspecialists.
Including labels, arrows, and other helpful navigation tools can make
a reader’s (and reviewer’s!) job easier. Avoid using
font sizes that are too small to easily read and choose colors that
have high contrast and can be distinguished by those who have color
blindness; this ensures that all readers can see and analyze the Figures.
Including schematics and graphics to accompany data can help to show
readers how the data fits into the bigger picture and relates to other
data.
Conclusions. A brief summary of the key results
is
always helpful in the Conclusions, but it is perhaps even more important
to put the new results in context with the field and beyond. Readers,
especially nonspecialists, appreciate having an idea of what is (or
could be) next as a result of this new research being reported. Forward-looking
conclusions set the stage for further work and get readers excited
about the future; they can also provide nonspecialists with a greater
appreciation and understanding of the field, which can pay long-term
dividends in unexpected ways! Readers could be policymakers, grant
officers, the media, and—especially for open access articles
such as those published in ACS Nanoscience Au—the
general public.
Methods/Experimental Section. The
Methods/Experimental
section should always include all information necessary to reproduce
the work described in the paper. To make this section more approachable
to broader, interdisciplinary audiences, consider briefly mentioning
the rationale for choosing certain key reagents, experimental parameters,
computational codes, and analytical techniques. Also consider offering
troubleshooting tips that would be especially helpful for researchers
(including students!) who are new to a field but whose research may
depend on reproducing and building upon your work.
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These
and other considerations for helping to make
a paper appeal
to a broad audience serve several goals, including drawing readers
in, allowing them to engage effectively and efficiently with the work
described in the paper, and helping them to learn and understand something
new—all without making them work too hard to do so. Writing
your paper with these goals in mind involves managing first impressions,
including the Title and Table of Contents Graphic, and second impressions—the
Abstract, Figures, and Conclusions—to encourage readers to
read the paper in greater depth. It also involves managing how readers
engage with the detailed technical content of the work. Efforts to
make a paper more approachable to a broader audience will pay dividends
even to researchers in related areas, because increasingly interdisciplinary
research relies on the ability to understand, appreciate, and integrate
knowledge developing beyond our own field(s). Different writers and
readers may have different strategies for doing so, but conscious
attention to how the various components of a paper can make it more
appealing to a broad audience will expand its reach and impact. When
coupled with open access and strategies for expanding a paper’s
visibility,
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authors play a very important
and powerful role in shaping the future of their research fields!