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Books > Science & Mathematics > Science: general issues > Science funding & policy
'A virtuoso feat ... a book of panoramic breadth' New York Times
Book Review 'A devastating analysis ... Wright is a master of
knitting together complex narratives' The Observer Just as Lawrence
Wright's The Looming Tower became the defining account of our
century's first devastating event, 9/11, so The Plague Year will
become the defining account of the second. The story starts with
the initial moments of Covid's appearance in Wuhan and ends with
Joseph Biden's inauguration in an America ravaged by well over
400,000 deaths - a mortality already some ten times worse than US
combat deaths in the entire Vietnam War. This is an anguished,
furious memorial to a year in which all of America's great
strengths - its scientific knowledge, its great civic and
intellectual institutions, its spirit of voluntarism and community
- were brought low, not by a terrifying new illness alone, but by
political incompetence and cynicism on a scale for which there has
been no precedent. With insight, sympathy, clarity and rage, The
Plague Year allows the reader to see the unfolding of this great
tragedy, talking with individuals on the front line, bringing
together many moving and surprising stories and painting a
devastating picture of a country literally and fatally misled.
'Maddening and sobering - as comprehensive an account of the first
year of the pandemic as we've yet seen' Kirkus
On 28 April 2021, the Indonesian government, under President Joko
Widodo, dissolved the Ministry of Research, Technology, and Higher
Education (Kemenristek-Dikti). Since then, the management of higher
education has been taken over by the Ministry of Education and
Culture, while research and innovation are now the responsibility
of the National Research and Innovation Agency (Badan Riset dan
Inovasi Nasional, or BRIN). Based on Presidential Regulation
(Perpres) Nos. 33 and 78 of 2021, various research institutes, such
as LIPI, BATAN, LAPAN and BPPT, and research agencies in some
ministries have been or will be merged into BRIN, making it a
"super-government agency" with an "overarching" role. With a Rp26
trillion budget allocated by the government for research per year
and with a large number of researchers, BRIN is expected to boost
national research and innovation, and help the country catch up
with countries such as Singapore and South Korea.
Notwithstanding the importance of modern technology, fieldwork
remains vital, not least through helping to inspire and educate the
next generation. Fieldwork has the ingredients of intellectual
curiosity, passion, rigour and engagement with the outdoor world -
to name just a few. You may be simply noting what you see around
you, making detailed records, or carrying out an experiment; all of
this and much more amounts to fieldwork. Being curious, you think
about the world around you, and through patient observation develop
and test ideas. Forty contributors capture the excitement and
importance of fieldwork through a wide variety of examples, from
urban graffiti to the Great Barrier Reef. Outdoor learning is for
life: people have the greatest respect and care for their world
when they have first-hand experience of it. The Editors are
donating all royalties due to them to the environmental charity,
The Field Studies Council, to support student fieldwork at the
Council's field centres.
The scientific advances that underpin economic growth and human
health would not be possible without research investments. Yet
demonstrating the impact of research programs is a challenge,
especially in areas that span disciplines, industrial sectors, and
encompass both public and private sector activity. All areas of
research are under pressure to demonstrate benefits from federal
funding of research. This exciting and innovative study
demonstrates new methods and tools to trace the impact of federal
research funding on the structure of research, and the subsequent
economic activities of funded researchers. The case study is food
safety research, which is critical to avoiding outbreaks of
disease. The authors make use of an extraordinary new data
infrastructure and apply new techniques in text analysis. Focusing
on the impact of US federal food safety research, this book
develops vital data-intensive methodologies that have a real world
application to many other scientific fields.
The United States government supports a broad range of scientific
and engineering research and development R&D. Its purposes
include addressing specific concerns such as national defence,
health, safety, the environment, and energy security, as well as
advancing knowledge generally, developing the scientific and
engineering workforce and strengthening U.S. innovation and
competitiveness in the global economy. The federal government has
played an important role in supporting R&D efforts that have
led to scientific breakthroughs and new technologies. This book
examines the federal role in funding research and development in
such areas as energy technology, colleges and universities, and
others.
Scientific and technical knowledge and guidance influences not just
policy related to science and technology, but also many of today's
public policies as policymakers seek knowledge to enhance the
quality of their decisions. Science and technology policy is
concerned with the allocation of resources for and encouragement of
scientific and engineering research and development, the use of
scientific and technical knowledge to enhance the nation's response
to societal challenges, and the education of Americans in science,
technology, engineering, and mathematics. Science and engineering
research and innovations are intricately linked to societal needs
and the nation's economy in areas such as transportation,
communication, agriculture, education, environment, health,
defence, and jobs. As a result, policymakers are interested in
almost every aspect of science and technology policy. The three
branches of government; executive, congressional, and judiciary;
depending on each branch's responsibility, use science and
technology knowledge and guidance to frame policy issues, craft
legislation, and govern. The science and engineering community,
however, is not represented by one individual or organisation. On
matters of scientific and technical knowledge and guidance, its
opinions are consensus-based with groups of scientists and
engineers coming together from different perspectives to debate an
issue based on the available empirical evidence. In the end,
consensus is achieved if there is widespread agreement on the
evidence and its implications, which is conveyed to policymakers.
Policymakers then determine, based on this knowledge and other
factors, whether or not to take action and what actions to take. If
there are major disagreements within large portions of the
community, however, consensus is not yet achieved, and taking
policy actions in response to a concern can be challenging. Several
organisations, when requested by the federal government or
Congress, provide formal science and technology policy advice:
federal advisory committees, congressionally chartered honorific
organisations, and federally funded research and development
corporations. In addition, many other organisations and individuals
-- international intergovernmental organisations, policy
institutes/think tanks, the public, professional organisations,
disciplinary societies, universities and colleges, advocacy,
special interest, industry, trade associations, and labour -- also
provide their thoughts. These organisations may agree on the
scientific and technical knowledge regarding an issue, but disagree
on what actions to take in response, as their values on a proposed
policy may differ. Policymakers may be overwhelmed with an
abundance of information from these organisations. Despite these
challenges, scientific and technical knowledge and guidance can
provide policymakers with an opportunity to make their decisions
based on the best information available, along with other factors
they might take into account, such as cultural, economic, and other
values, so that societal and economic benefits are enhanced and
losses are mitigated.
In recent years the news media have been awash in stories about
increasingly close ties between college campuses and
multimillion-dollar corporations. Our nation's universities, the
story goes, reap enormous windfalls patenting products of
scientific research that have been primarily funded by taxpayers.
Meanwhile, hoping for new streams of revenue from their
innovations, the same universities are allowing their research--and
their very principles--to become compromised by quests for profit.
But is that really the case? Is money really hopelessly corrupting
science?
With "Science for Sale," acclaimed journalist Daniel S. Greenberg
reveals that campus capitalism is more complicated--and less
profitable--than media reports would suggest. While universities
seek out corporate funding, news stories rarely note that those
industry dollars are dwarfed by government support and other funds.
Also, while many universities have set up technology transfer
offices to pursue profits through patents, many of those offices
have been financial busts. Meanwhile, science is showing signs of
providing its own solutions, as highly publicized misdeeds in
pursuit of profits have provoked promising countermeasures within
the field.
But just because the threat is overhyped, Greenberg argues, doesn't
mean that there's no danger. From research that has shifted
overseas so corporations can avoid regulations to conflicts of
interest in scientific publishing, the temptations of money will
always be a threat, and they can only be countered through the
vigilance of scientists, the press, and the public.
Based on extensive, candid interviews with scientists and
administrators, "Science for Sale "will beindispensable to anyone
who cares about the future of scientific research.
Toward what end does the U.S. government support science and
technology? How do the legacies and institutions of the past
constrain current efforts to restructure federal research policy?
Not since the end of World War II have these questions been so
pressing, as scientists and policymakers debate anew the
desirability and purpose of a federal agenda for funding research.
Probing the values that have become embodied in the postwar federal
research establishment, Politics on the Endless Frontier clarifies
the terms of these debates and reveals what is at stake in attempts
to reorganize that establishment.
Although it ended up as only one among a host of federal research
policymaking agencies, the National Science Foundation was
originally conceived as central to the federal research
policymaking system. Kleinman's historical examination of the
National Science Foundation exposes the sociological and political
workings of the system, particularly the way in which a small group
of elite scientists shaped the policymaking process and defined the
foundation's structure and future. Beginning with Vannevar Bush's
1945 manifesto The Endless Frontier, Kleinman explores elite and
populist visions for a postwar research policy agency and shows how
the structure of the American state led to the establishment of a
fragmented and uncoordinated system for federal research
policymaking. His book concludes with an analysis of recent efforts
to reorient research policy and to remake federal policymaking
institutions in light of the current crisis of economic
competitiveness.
A particularly timely study, Politics on the Endless Frontier will
be of interest to historians and sociologists of science and
technology and to science policy analysts.
How do scientists impact society in the twenty-first century? Many
scientists are increasingly interested in the impact that their
research will have on the public. Scientists likewise must answer
the question above when applying for funding from government
agencies, particularly as part of the 'Broader Impacts' criterion
of proposals to the US National Science Foundation. This book
equips scientists in all disciplines to do just that, by providing
an overview of the origins, history, rationale, examples, and case
studies of broader impacts, primarily drawn from the author's
experiences over the past five decades. Beyond including theory and
evidence, it serves as a 'how to' guide for best practices for
scientists. Although this book primarily uses examples from the
NSF, the themes and best practices are applicable to scientists and
applications around the world where funding also requires impacts
and activities that benefit society.
A proposal for using cost-benefit analysis to evaluate the
socioeconomic impact of public investment in large scientific
projects. Large particle accelerators, outer space probes, genomics
platforms: all are scientific enterprises managed through the new
form of the research infrastructure, in which communities of
scientists collaborate across nations, universities, research
institutions, and disciplines. Such large projects are often
publicly funded, with no accepted way to measure the benefits to
society of these investments. In this book, Massimo Florio suggests
the use of cost-benefit analysis (CBA) to evaluate the
socioeconomic impact of public investment in large and costly
scientific projects. The core concept of CBA of any infrastructure
is to undertake the consistent intertemporal accounting of social
welfare effects using the available information. Florio develops a
simple framework for such accounting in the research infrastructure
context and then offers a systematic analysis of the benefits in
terms of the social agents involved. He measures the benefits to
scientists, students, and postdoctoral researchers; the effect on
firms of knowledge spillovers; the benefits to users of information
technology and science-based innovation; the welfare effects on the
general public of cultural services provided by RIs; and the
willingness of taxpayers to fund scientific knowledge creation.
Finally, Florio shows how these costs and benefits can be expressed
in the form of stochastic net present value and other summary
indicators.
"Limited by Design" is the first comprehensive study of the
varying roles played by the more than 16,000 research and
development laboratories in the U.S. national innovation system.
Michael Crow and Barry Bozeman offer policy makers and scientists a
blueprint for making more informed decisions about how to best
utilize and develop the capabilities of these facilities. Some
labs, such as Bell Labs, Westinghouse, and Eastman Kodak, have been
global players since the turn of the century. Others, such as Los
Alamos National Laboratory, have been mainstays of the
military/energy industrial complex since they evolved in the 1940s.
These and other institutions have come to serve as the
infrastructure upon which a range of industries have relied and
have had a tremendous impact on U.S. social and economic
history.
Michael Crow and Barry Bozeman illustrate the histories,
missions, structure, and behavior of individual laboratories, and
explore the policy contexts in which they are embedded. In studying
this large and varied collection of labs, Crow, Bozeman, and their
colleagues develop a new framework for understanding the structure
and behavior of laboratories that also provides a basis for
rationalizing federal science and technology policy to create more
effective laboratories.
The book draws upon interviews and surveys collected from
thousands of scientists, administrators, and policy makers, and
features boxed "lab windows" throughout that provide detailed
information on the variety of laboratories active in the U.S.
national innovation system.
"Limited by Design" addresses a range of questions in order to
enable policy makers, university administrators, and scientists to
plan effectively for the future of research and development.
Officials and religious scholars in the Gulf states have repeatedly
banned the teaching of the theory of evolution because of its
association with atheism. But Jorg Matthias Determann argues here
that, despite official prohibition, research on biological
evolution has flourished, due in large part to the development of
academic and professional networks. This book traces these networks
through the history of various branches of biology, including
botany, conservation research, ornithology and palaeontology.
Typical of rentier societies, some of the scientific networks in
this region consist of vertical patron-client relationships. For
example, those in power who are interested in wildlife conservation
have been known to offer patronage to biologists working on desert
ecology. However, just as important are the horizontal links
between scientists both within the Gulf region and beyond. Given
the strengths and importance of these two forms of professional
networks, Determann argues that we should look at the Arab world as
an area interconnected with global science, and therefore fully
integrated into the scientific and technological advances being
pioneered worldwide.
The primary data driver behind US drug policy is the National
Survey on Drug Use and Health. This insider history traces the
evolution of the survey and how the survey has interacted with the
political and social climate of the country, from its origins
during the Vietnam War to its role in the war on drugs. The book
includes first-hand accounts that explain how the data was used and
misused by political leaders, why changes were made in the survey
design, and what challenges researchers faced in communicating
statistical principles to policymakers and leaders. It also makes
recommendations for managing survey data collection and reporting
in the context of political pressures and technological advances.
Survey research students and practitioners will learn practical
lessons about questionnaire design, mode effects, sampling,
nonresponse, weighting, editing, imputation, statistical
significance, and confidentiality. The book also includes
common-language explanations of key terms and processes to help
data users understand the point of view of survey statisticians.
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