Interest has been growing in the
genre of Public Understanding of Research (PUR), thanks in part to the
efforts of Hyman Field (now at AAAS on leave from NSF) and a conference
at the Science Museum of Minnesota in September 2002 (Field and Powell
2001; Bossert and Ucko 2003). The seven sessions directly related to
this theme at the recent ASTC Annual Conference in St. Paul confirm
this trend.
The present initiative can be seen
as an outgrowth of sporadic past efforts to inform the public about
new developments in science and technology. For example, I was involved
in one such activity at Chicago’s Museum of Science and Industry more
than two decades ago. The modest Science Alive! exhibition included backlit
transparencies, an object case, and minimal visitor interaction. It
was discontinued after several “hot topic” change-overs due to the amount
of work required to produce what in essence was a three-dimensional
version of a science magazine article.
This temporary exhibition illustrates
several of the challenges involved in PUR efforts. Response must be
more rapid for exhibits on “frontier” science than in those areas that
are more established. Interpretation for public audiences may be difficult
because results are still tentative. No “cookbooks” yet exist for building
devices based on emerging models and experimental results. The ongoing
research process is messy, not yet “sanitized” through retrospective
histories. Because the outcomes and consequences remain unclear, current
research can generate controversy as well.
On the other hand, research represents
the cutting edge of science, “where the action is” so to speak. It provides
an opportunity to convey the excitement of discovery in exploring the
unknown. The inevitable mix of scientific collaboration and competition
can lend itself to human-interest stories, some of which may have been
identified by the media. Finally, and perhaps most importantly, research
provides opportunities for public engagement, as discussed further in
this article.
Research
Literacy and Content
Research literacy can be defined
to encompass a basic understanding by the public of the following three
elements: content of current research; the process of research; and
potential implications or consequences (Ucko 2004). As in the early
example cited, most PUR efforts today still focus on what’s new in science
and technology, the content component as defined here.
Some museums have developed large-scale
exhibit areas, such as Antenna
at the Science Museum, London and the Current
Science & Technology Center at Boston’s Museum of Science. Others
have developed smaller kiosk-type exhibits, such as ScienceNOW
at the California Academy of Sciences in San Francisco and Science Bulletins at the American Museum
of Natural History in New York. Many museums offer educational programs
on current science, typically involving presentations by researchers.
Examples include Family Adventures
in Science and Technology (FAST)
at the M.I.T. Museum in Cambridge, MA and Curiosity
Corner at the Tech Museum in San Jose, CA.
Formats that present current science
and technology such as these have limitations. They can require considerable
investment of staff time and funds, as noted. The public increasingly
can obtain the latest information about recent developments online from
numerous web sites, such as those of news media and science publications.
In addition, simply conveying information about research may be less
effective than enhancing PUR through what may be termed Public Engagement
in Research. Such engagement can perhaps best be engendered through
the second and third components of research literacy, namely involving
the public in aspects of the research process or in dialogue on the
consequences.
Research Process
It is difficult for exhibitions
to portray the process of research in the abstract. I experienced that
challenge first-hand in the development of Inquiry,
an NSF-funded exhibition on this subject. Scientific research is decidedly
nonlinear and hardly resembles the formulaic process often portrayed
in the classroom. Thus the approach we took (Ucko 1983) was to highlight
key characteristics of the process, including the human aspects involved
in carrying out experiments and developing explanations. Subsequent
exhibits that have grappled with this theme include Investigate! in Boston and Çatalhöyük in St. Paul.
Another technique
provides “virtual field trips” that give the public access to research
settings. An early illustration is the Jason Project (“Real science. Real Time.
Real Learning.”), which let students join Robert Ballard for two weeks
during an annual expedition. Live@Exploratorium,
a more recent version of this type of programming, is based on web cast
visits to scientific research sites mediated by studio audiences on
the museum floor. Perhaps the most effective virtual field trip, although
not based on research per se, is Live
From…Cardiac Classroom at the Liberty Science Center in New Jersey
(see figure 1). In this school group program, students participate through
two-way videoconferencing in actual open-heart surgery taking place
in a hospital operating room.
Figure 1. Live
From…Cardiac Classroom
In principle, the best way to help
the public understand the research process is to involve them directly
through “hands-on research.” One example was the 45-minute Living
Labs program at the now defunct Hall of Exploration at the Columbus
Center in Baltimore, MD, in which visitors screened marine chemicals
for their ability to emulsify oil. Longer-term participation is possible
through programs at institutions with research programs, such as many
natural history museums. For example, after completing a certification
class, volunteers at the Denver Museum of Nature & Science can assist
in paleontology research; several have co-authored the resulting scientific
publications.
“Citizen
science” programs can involve the public in research in far greater
number. The Cornell Laboratory of Ornithology introduced the current
use of this term to describe layperson participation in its ongoing
research activities. Thousands of children and adults across the nation
take part in such programs as eBird,
Project FeederWatch, Project PigeonWatch, and the House Finch Disease Survey. These citizen scientists can enter their
own observations as well as access the national database used by Cornell
researchers to study the causes and consequences relating to the distribution
and abundance of North American birds. Similar programs now include
the Denver Museum’s Colorado Spider
Survey and the National Wildlife Federation’s Frogwatch
USA. They provide the opportunity to make scientific research relevant
to the public; the key is engaging participants in meaningful activities
over a period of time.
Research Implications
Science museum exhibits have tended
to stay away from the issues raised by science and technology, whether
current or historical. A notable exception, which opened in 1983 at
Chicago’s Museum of Science and Industry, was “Technology:
Chance or Choice?” (Ucko 1983). It encouraged thought and discussion
of both the positive and negative consequences through selection by
visitors of statements best representing their perspective, letting
them compare their own choices to those of others on computers (Texas
Instruments TI-99s!). This technique has since been applied to other
exhibits, most commonly those dealing with biotechnology and its possible
implications.
Theater offers a very different
approach, one that is well suited for exploring complex issues. The
acclaimed Michael Frayn play Copenhagen, based on the meeting between
nuclear physicists Niels Bohr and Werner Heisenberg during World War
II, demonstrates the potential of this medium to raise critical questions.
The challenge, particularly for museums, is to present in a professional
manner work of quality that integrates art and science. The International
Museum Theatre Alliance serves as a resource for institutions interested
in pursuing this direction.
Forums, debates, and conferences
provide the most direct formats for involving the public in the implications
of current research. European museums have gone farthest in this area,
including The College at La Cité in Paris, which
offers an ongoing series of programs related to the consequences of
science and technology. The Café
Scientifique, in which the public and a scientist converse over
coffee or wine, represents a rather more informal approach; Science
in the Pub is the Australian version.
This direction is being pursued
on a large scale by the Science Museum in London with the opening of
its Dana Centre. Here the focus is a café-bar (described by one observer
as “Ikea on acid”) accompanied by programming that includes stand-up
comedy and events designed to stimulate dialogue. Although children
are not strictly barred, its target audience is 18 to 45 year-olds.
The Centre seeks to engage adults in provocative debate on hot science
topics “away from the ‘safe’ family environment” typical of museums.
Led by Graham Farmelo, it’s an important venture to follow.
Programs on the implications of
research can fill vital local or regional needs by providing community
forums for informed discussion on relevant topics. They can create opportunities
for civic engagement by enabling museums to become “community centers”
in a real sense. Dealing with charged topics is challenging, however.
It is important to establish dialogue under conditions that minimize
polarization and crowd psychology such as skilled moderation and balanced
expert information (Macoubrie n.d.).
Collaboration
Regardless of which aspect of research literacy
is pursued or methods used, collaboration is essential. Scientists are
obviously primary sources for the research content and process. Unless
the work happens to be going on in-house, collaboration with universities,
research centers, professional organizations, or media is necessary
to identify interesting work and scientists. In this regard, university
Public Information Officers (or Public Affairs Officers) can provide
valuable assistance, as well as networking through such organizations
as the American Association for the Advancement of Science, Sigma Xi
(The Scientific Research Society), and even the Society for Amateur
Scientists. In addition to serving as advisors, scientists can become
sources for citizen science projects or present programs if they have
the requisite communications skills. Unless staff are cognizant of the
field and key players, validation of the research may be necessary from
other scientists to assure significance and quality.
Fortunately, more scientists are
beginning to acknowledge the value of outreach. Requirements by granting
agencies, such as NSF, for “broader impact” are helping stimulate this
change in attitude. Exposing the public to their research can help attract
undergraduate and graduate students to faculty members’ programs. It
can make possible data collection through citizen science, if relevant
to the research. The academic stigma of public communication is diminishing,
and some institutions even recognize faculty for such efforts.
Partnering with media may be less
essential than with scientists, but can enhance PUR efforts nonetheless.
Media can be sources for breaking news and resources for graphics, animation,
and video. Since their focus is the human-interest angle and storytelling,
these approaches can help museums relate research to visitor interests.
In addition to possible assistance during exhibit or program development,
media partners can provide channels for promotion and cross-dissemination
at reduced or no cost.
Although museums often solicit
such partnerships as charitable contributions, media benefit significantly
as well. Museums offer physical sites complementary to the on-air presence
where media representatives can interact directly with their audiences.
These settings offer opportunities to run focus groups, test new formats,
present live programming, and stage special events, as well as provide
a complementary channel for educational outreach.
In addition to specific partnerships,
regional collaboration can generate further prospects for sharing resources.
Representatives of museums, media, universities, libraries, and other
organizations could meet on a regular or occasional basis to explore
areas of common interest and exchange information; just creating an
e-mail and phone directory for networking can be valuable. Nationally,
consortia similar to the exhibit collaboratives can help institutions
develop materials or programs that get jointly subsidized and disseminated
to all participants. Cross-field information sharing can be stimulated
through articles or information provided to complementary publications
and list serves.
Conclusion
Although certainly no panacea,
PUR offers an alternative framework for viewing exhibits and programs,
one with its own set of challenges and opportunities. For those institutions
choosing to pursue this direction, each will need to determine the most
appropriate “mix” of research literacy components, whether for particular
projects or overall. Ideally, exhibit and program elements would be
integrated across the three components to achieve increased length of
visitor engagement and resulting impact.
The most effective approach may
well be Public Engagement in Research through involving visitors in
the process through “hands-on research” programs such as citizen science
and in the consequences of research through formal or informal dialogue.
Supported by end-to-end collaboration with scientists, media, and other
institutions, these kinds of programs can provide a worthy alternative
to activities that focus primarily on science news or the content of
current science and technology. Further information on this topic can
be found in the forthcoming AltaMira Press book Creating Connections: Museums and the Public Understanding of Current
Research.
References