Each year, the National Alliance for Broader Impacts (NABI) seeks to understand the current state of broader impacts (BI) in the national context. In 2017, NABI convened two forums to identify needs and solicit recommendations. The first event was a 90-minute town hall session with 120 participants facilitated by Jamie Bell at the April 2017 BI Summit. The second event was a two-day convening facilitated by Goose Creek Consulting at NSF headquarters in May 2017 of stakeholder groups including university administrators (e.g., provosts, associate provosts, vice-presidents of research)
Scientific ignorance can be a potential obstacle in the journey of India becoming a developed nation and a knowledge economy. Such ignorance can also be the cause of various myths, superstitions and blind faiths which can further hinder the development agenda of any nation. Science Communication can potentially dissipate scientific ignorance in the society. Science Communication is a rapidly growing area of expertise both academically and professionally around the globe. It is getting established as an academic discipline with several universities/institutions around the world starting
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TEAM MEMBERS:
Abhay S. D. Rajput
resourceresearchProfessional Development, Conferences, and Networks
This paper reviews the purposes, definitions and criteria designed to embed ‘engaged research’ as a strategic priority with universities, and explores some of the challenges of implementation. Surveys of academics have shown various understandings of, and attitudes to, the practices of engaged research, but also impediments to realising the aspirations it expresses. Drawing on the experience as the academic lead for engaged research at the Open University, the author explores questions of professionalisation, for example, through training, support mechanisms and measures of recognition for
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TEAM MEMBERS:
Richard Holliman
resourceresearchProfessional Development, Conferences, and Networks
Science communication research and education programmes worldwide exhibit notable differences as well as similarities. In this essay the authors claim that this diversity is not a problem. They argue that universities can contribute well to the science communication field, theoretically and in practice, if they invest in building collaborations and make use of the ‘networked pattern’ connecting various actors, contexts and contents. As critical nodes in the networks, universities can enable practitioners to deliver real-life cases, students to participate to find solutions and researchers to
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TEAM MEMBERS:
Caroline WehrmannMaarten van der Sanden
resourceresearchProfessional Development, Conferences, and Networks
This essay examines several distinct roles universities play in science communication, with particular reference to professionalisation in the field. It identifies the ways in which universities have facilitated, even driven, that continuing process. But it also notes the potential and actual contradictions between some of the roles of universities, reflecting current developments in higher education across many different contexts.
This is an introduction to four essays in a Commentary that examine contributions of universities to science communication’s development but also challenges in
consolidating those efforts.
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TEAM MEMBERS:
Brian Trench
resourceresearchMuseum and Science Center Programs
The National Autonomous University of Mexico (UNAM) is one of the world's single largest employers of science communicators, with over 350,000 students and 40,000 staff. Its science communication activities include five museums (Universum, Museo de la Luz, the Geology Museum, Museo de la Medicina Mexicana and Musem of Geophysics), botanical gardens, as well as a wide range of cultural and outreach activities. It has several programmes for training professional science communicators. The science communication staff are spread across the campuses in Mexico City and four other cities, including
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TEAM MEMBERS:
Ana Claudia NepoteElaine Reynoso-Haynes
Citizen science by youth is rapidly expanding, but very little research has addressed the ways programs meet the dual goals of rigorous conservation science and environmental science education. We examined case studies of youth-focused community and citizen science (CCS) and analyzed the learning processes and outcomes, and stewardship activities for youth, as well as contributions to site and species management, each as conservation outcomes. Examining two programs (one coastal and one water quality monitoring) across multiple sites in the San Francisco Bay Area, CA, in- and out-of-school
This poster was presented at the 2010 Association of Science-Technology Centers Annual Conference. The Saint Louis Science Center is a partner in Washington University's Cognitive, Computational, and Systems Neuroscience interdisciplinary graduate program funded by the NSF-IGERT (Integrative Graduate Education and Research Traineeship) flagship training program for PhD scientists and engineers.
To address the challenges of recruiting, training, impacting, and retaining scientists in informal outreach and to capitalize on access to the public through a local science center, Washington University and the St. Louis Science Center (SLSC; http://www.slsc.org) collaborated to create a program that combines informal science communication and the professional development of graduate students. The program sought to produce scientists who were trained to be effective informal educators. Workshops developed and led by SLSC staff, followed by personalized coaching, covered essential science
The CADRE Early Career Guide offers advice from experienced DR K-12 awardees on becoming a successful researcher in the field of STEM education. The guide also profiles a support program, the CADRE Fellows, for doctoral students in STEM education research.
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TEAM MEMBERS:
Jennifer StilesCatherine McCullochCommunity for Advancing Discovery Research in Education (CADRE)
Students in the U.S. educational system are increasingly diverse, and this diversity is reflected in science, technology, engineering, and mathematics (STEM) fields. Diversity in education encompasses students from many races, genders, and socioeconomic backgrounds; students who speak a variety of languages; and students from many cultures. For instance, ethnic diversity increased by 5% across primary and secondary public schools from 2000 to 2007 (Aud, Fox, & KewalRamani, 2010). Diversity is also evident in the socioeconomic make-up of students, with almost half of 4th graders in public