In this article we explore how activity design and learning contexts can influence youth failure mindsets through a case study of five youth who described failure as sometimes a good thing and sometimes a bad thing (a perspective we characterize as Failure as Mosaic, described in the article). These youth and their descriptions of failure-positive and failure-negative experiences offer a unique opportunity to identify how experiences can be designed to support learning and persistence. In order to understand differing views of failure among youth, we researched the following questions:
Seeking to use narrative as a vehicle for getting more young people interested in STEM, the National Science Foundation supported a WETA/PBS NewsHour initiative to adapt their Student Reporting Labs (SRL) curriculum to feature a focus on STEM content in 2015. NewsHour selected Knology to run a four-year evaluation of the project from 2015 to 2019. Building on earlier research about student-led science journalism (e.g. Polman & Hope, 2014; Nicholas, 2017), this project suggests that having students develop and produce narratives about complex STEM topics may make these topics far less
We present an assessment of the Engage program, a graduate-student-created and led training program at the University of Washington. Using a pre-course/post-course study design, we examined student ability to deliver a short presentation appropriate for a public audience. Based on both self-assessments and assessments by external reviewers, we show that Engage trainees had an increase in their ability to employ effective communication techniques.
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TEAM MEMBERS:
Melissa ClarksonJuliana HoughtonWilliam ChenJessica Rodhe
This essay discusses how gender-focused culture change initiatives developed for science (like Athena SWAN) might offer models for science communication. Such initiatives can seek to mobilise change amongst university departments and practices, but there are also potential pitfalls in such approaches. Using experiences in a department at UWE Bristol as a basis, the article will consider whether such schemes in science offer potential for science communication to reflect on its own gender imbalances.
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TEAM MEMBERS:
Clare Wilkinson
resourceresearchProfessional Development, Conferences, and Networks
There is a significant under-representation of women in STEM which is damaging societal progress for democratic, utilitarian, and equity reasons. However, changing stereotypes in STEM requires a solution denied by the problem — more visible female role models. Science communicators are critical to curate the conditions to bypass this Catch 22. We propose that enhancing self-efficacy for female scientists and engineers to mentor others will generate more supportive workplaces. Similarly, enhancing self-efficacy for public engagement improves the visibility of diverse female role models for
Feminist technoscience theory offers perspectives for science communication that both question common narratives and suggests new narratives. These perspectives emphasize issues of ethics and care often missing from science communication. They focus on questions of what is marginalized or left out of stories about science — and encourage us to make those absences visible.
This commentary introduces feminist standpoint theory and discusses its potential value in science communication. It offers two ways in which feminist standpoints can help in both research and practice. First, science communicators should aim to understand the perspective from which they understand and share scientific knowledge. Second, practitioners and researchers alike should seek insights from marginalized groups to help inform the ways the dominant view of science reflects hegemonic social and cultural norms.
As science communication develops as a field of both practice and research, it needs to address issues of equity, diversity, and inclusion across a wide range, including race, power, class, gender. Doing so will require deeper understanding of conceptual work and practical activities that address those issues. This brief comment introduces a series of commentaries that provide one approach: feminist approaches to science communication.
For nearly 20 years, the UAB Center for Community OutReach Development (CORD) has conducted SEPA funded research that has greatly enhanced the number of minority students entering the pipeline to college and biomedical careers, e.g., nearly all of CORD’s Summer Research Interns since 1998 (>300) have completed/are completing college and most of them are continuing on to graduate biomedical research and/or clinical training and careers. CORD’s programs that focused on high and middle school students have drawn many minority students into biomedical careers, but a low percentage of minority students benefit from these programs because far too many are already left behind academically in grades 4-6, due, at least in part, to a significant drop in science grades between grades 4 and 6, a drop from which most students never recover. A major contributor to this effect is that most grade 4-6 teachers in predominantly minority schools lack significant formal training in science and often are not fully aware of the great opportunities offered by biomedical careers.
In SEEC II, CORD will deliver intensive inquiry-based science training to grade 4-6 teachers, providing them with science content and hands-on science experiences that will afford their student both content and skills that will make them excited about, and competitive for, the advanced courses needed to move into biomedical research careers. SEEC II will also link teachers together across the elementary/middle school divide and bring the teachers together with administrators and parents, who will experience firsthand the excitement that inquiry learning brings and the significant advancement it provides in science and in reading and math. At monthly meetings and large annual celebrations, the parents, teachers and administrators will learn about the opportunities that biomedical careers can provide for the student who is well prepared. They will also consider the financial and educational steps required to ensure that students have the ability to reach these professions.
SEEC II will also expand CORD’s middle school LabWorks and Summer Science Camps to include grade 4-5 students and provide the teachers with professional learning in informal settings. During summer training, in small groups, the teachers will expand one of the inquiry-based science activities that they complete in the training, and they will use these in their classrooms and communicate with the others in their group to perfect these experiences in the school year. Finally, the teachers and grade 4-5 students will develop science and engineering fair-type research projects with which they will compete both on the school level and at the annual meeting. Thus, the students will share with their parents the excitement that science brings. The Intellectual Merit of SEEC II will be to test a model to enhance grade 4-6 teacher development and vertical alignment, providing science content, exposure to biomedical scientists and training in participatory science experiments, thus positioning teachers to succeed. The Broader Impacts will include the translation and testing of a science education model to assist minority students to avoid the middle school plunge and reach biomedical careers.
The employment demands in STEM fields grew twice as fast as employment in non-STEM fields in the last decade, making it a matter of national importance to educate the next generation about science, engineering and the scientific process. The need to educate students about STEM is particularly pronounced in low-income, rural communities where: i) students may perceive that STEM learning has little relevance to their lives; ii) there are little, if any, STEM-related resources and infrastructure available at their schools or in their immediate areas; and iii) STEM teachers, usually one per school, often teach out of their area expertise, and lack a network from which they can learn and with which they can share experiences. Through the proposed project, middle school teachers in low-income, rural communities will partner with Dartmouth faculty and graduate students and professional science educators at the Montshire Museum of Science to develop sustainable STEM curricular units for their schools. These crosscutting units will include a series of hands-on, investigative, active learning, and standards-aligned lessons based in part on engineering design principles that may be used annually for the betterment of student learning. Once developed and tested in a classroom setting in our four pilot schools, the units will be made available to other partner schools in NH and VT and finally to any school wishing to adopt them. In addition, A STEM rural educator network, through which crosscutting units may be disseminated and teachers may share and support each other, will be created to enhance the teachers’ ability to network, seek advice, share information, etc.
Underrepresented minorities (URMs) represent 33% of the US college age population and this will continue to increase (1). In contrast, only 26% of college students are URMs. In the area of Science Technology, Engineering and Mathematics (STEM), only 15% of college students completing a STEM major are URMs (2). While there have been gains in the percent of Hispanic and Black/African Americans pursuing college degrees, the number of Native American college students remains alarmingly low. In 2013, Native Americans represented only 1% of entering college students and less than 50% finished their degree. Moreover, 1% of students pursuing advanced degrees in STEM-related fields are Native American/Alaska Native. With regards to high school graduation rates, the percent of Native American/Alaska Native students completing high school has decreased with only 51% of students completing high school in 2010 compared to 62 % and 68% for Black and Latino students respectively. While identifying ways to retain students from all underrepresented groups is important, developing programs targeting Native American students is crucial. In collaboration with the Hopi community, a three-week summer course for Native American high school students at Harvard was initiated in 2001. Within three years, the program expanded to include three additional Native American communities. 225 students participated in the program over a 10-year period; and 98% of those responding to the evaluation completed high school or obtained a GED and 98% entered two or four year colleges including 6 students who entered Harvard. This program was reinitiated in 2015 and we plan to build on the existing structure and content of this successful program. Specifically, in collaboration with two Native American communities, the goal of the program is 1) to increase participants’ knowledge of STEM disciplines and their relevance to issues in participants’ communities via a three week case-based summer course for Native American high school students; 2) to help enhance secondary school STEM education in Native American communities by providing opportunities for curriculum development and classroom enhancement for secondary school teachers in the participating Native American communities; and 3) to familiarize students with the college experience and application process and enhance their readiness for college through workshops, college courses and internships. Through these activities we hope to 1) increase the number of Native American students completing high school; 2) increase the number of Native American students applying and being accepted to college; 3) increase the number of Native American students pursuing STEM degrees and careers; 4) increase the perception among Native American students that attending and Ivy plus institution is attainable; 5) increase the feeling of empowerment that they can help their community by pursuing advanced degrees in STEM.
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This proposal supports a summer program for high school students and teachers from Native American communities. The program goals are to encourage students to complete high school and prepare them for college and to also consider degrees in science, technology, engineering, and math.
This worksheet provides a brief overview of the different types of goals and objectives that a science communicator might want to prioritize when think about the design of communication activities.