RISES (Re-energize and Invigorate Student Engagement through Science) is a coordinated suite of resources including 42 interactive English and Spanish STEM videos produced by Children's Museum Houston in coordination with the science curriculum department at Houston ISD. The videos are aligned to the Texas Essential Knowledge and Skills standards, and each come with a bilingual Activity Guide and Parent Prompt sheet, which includes guiding questions and other extension activities.
Over the last year we have been able to take a few hours each week to step back from our current work, reflect on our assumptions, learn from others, and explore new ways that our research could both uncover and help dismantle inequities and racism in the STEM education system. This eBook, and the series of blog posts on which it is based, is the result of these conversations and this reflective process. Our goal is to explore the themes and ideas that emerged from the year and how these might fundamentally change the way we think about STEM, work with families and children, and conduct
The National Federation of the Blind (NFB), in partnership with scholars from Utah State University and educators from the Science Museum of Minnesota (SMM), has developed the Spatial Ability and Blind Engineering Research (SABER) project to assess and improve the spatial ability of blind teens in order to broaden their participation in STEM fields. The goals of the project include: 1. Develop and investigate the reliability of a tactile instrument to test blind and low vision youths’ spatial ability levels. 2. Contribute to the knowledge base of effective practices regarding informal STEM
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TEAM MEMBERS:
Gary TimkoTheresa GreenDaniel KaneWade GoodridgeLaura Weiss
Children’s and parents’ spatial language use (e.g., talk about shapes, sizes and locations) supports children’s spatial skill development. Families use spatial language during playful construction activities. Spatial language use varies with construction activity design characteristics, such as the activity’s play goals. What is the connection between the building materials used and the spatial conversations families have during a construction activity?
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TEAM MEMBERS:
Evan VlahandreasClaire MasonNaomi PolinskyDavid UttalCatherine Haden
Hands-on tinkering experiences can help promote more equitable STEM learning opportunities for children from diverse backgrounds (Bevan, 2017; Vossoughi & Bevan, 2014). Latine heritage families naturally engage in and talk about engineering practices during and after tinkering in a children’s museum (Acosta & Haden, in press). We asked how the everyday practice of oral stories and storytelling could be leveraged during an athome tinkering activity to support children’s informal engineering and spatial learning.
Informal educational activities, such as tinkering, can be beneficial for children’s engineering learning (Bevan, 2017; Sobel & Jipson, 2016). Storytelling can help children organize and make meaning of their experiences (Brown et al., 2014; Bruner, 1996), thereby supporting learning. Digital storytelling, in which narratives and reflections are combined with photos and videos in order to be shared with an audience, has become a familiar, enjoyable activity for many children (Robin, 2008). We examine whether digital storytelling activities during tinkering and reflection will be related to
Informal educational activities, such as tinkering, can be beneficial for children’s engineering learning (Bevan, 2017; Sobel & Jipson, 2016). Storytelling can help children organize and make meaning of their experiences (Brown et al., 2014; Bruner, 1996), thereby supporting learning. We examine whether digital storytelling activities during tinkering and reflection will be related to more engineering talk.We also explore whether children with previous digital storytelling experience will produce higher quality narratives than children without.
Introducing young children to STEM is critical for cultivating early interests and understanding that ultimately contribute to broader participation in the STEM fields. However, while there is substantial research around early childhood mathematics and a growing body of literature related to early childhood science, early childhood engineering continues to be the focus of only a few studies. To address this need, we conducted a design-based research (DBR) study focused on both (b) iteratively developing and improving home-based, engineering design activities for families with preschool-age
Early learning experiences for children have the potential to make a lasting impression on a young person, and ultimately influence their interests, school trajectories, and professional careers. As such, there has been an increasing effort to understand what can make these experiences more or less productive for young people, particularly in science, technology, engineering, and mathematics fields that face ongoing challenges related to workforce development. A better understanding of what happens during and after early engineering activities - and in particular, what contributes to a productive and engaging experience for children between the ages of 3 and 5 - can inform the design of new activities and potentially catalyze greater interest and learning about engineering at a young age. This study seeks to add new knowledge in this area by exploring how and why different elements of engineering activities for young children might be more or less effective for early learners. In addition, the study also examines engagement and interest related to engineering at the family level, acknowledging the essential roles that parents and families play in the overall development of young children. Finally, this study includes a specific focus on low-income and Spanish-speaking families, thereby engaging with communities that historically have less access to early science and engineering learning opportunities and remain persistently underrepresented in these fields. In order to maximize the impact of this research, findings from this study will be shared broadly with parents, educators, and researchers from multiple fields such as engineering education, child development, and informal/out-of-school time education.
This study has the potential to have a transformative impact on engineering education by developing both educational products and conceptual frameworks that advance the field's knowledge of how to effectively engage young learners and their parents/caregivers in meaningful and productive engineering learning experiences. This study seeks to break new ground at the frontiers of early childhood engineering, specifically through a) articulating and refining a new integrated conceptual framework that weaves together theories of learning and development with theoretical constructs from engineering design and b) applying and refining this integrated framework when creating, implementing, assessing, and revising components of family-based engineering activities for early learners, particularly those from low-income and Spanish-speaking families. Unlike many other early childhood engineering programs, this project focuses on the family context, which is the primary driver of learning and interest development at this age. The study therefore provides an opportunity to advance the field by both helping young children build engineering skills and interests before starting kindergarten while also empowering parents to support their children's engineering education at a critical developmental period. Additionally, by enhancing parent-child interactions and supporting a range of early childhood development goals, this project will also contribute to efforts to decrease the persistent kindergarten readiness gap across racial, ethnic, and socioeconomic groups. The research ultimately supports efforts to increase the diversity of individuals who will potentially enter the engineering workforce.
Interest is a critical motivating factor shaping how children engage with STEM inside and outside of school and across their lives. In this paper, we introduce the concept of interest catalyst that emerged from longitudinal research with preschool-age children and their families as critical to the process through which each family developed unique interest pathways through their experience with a family-based informal engineering education program. As defined by the team, an interest catalyst is an instance or moment in which an element of the program (or other learning resource or experience)
In collaboration with Metropolitan Family Service (MFS), we conducted a three-year design-based research study to better understand how the characteristics of hands-on, home-based family engineering activities influence how preschool-age children and their parents engage in the engineering design process. Four themes emerged from the study: (1) Families used their imagination and activity narrative elements to set the design context, (2) Families evaluated and revised their solutions based on imagination-driven constraints, (3) Families creatively modified the design space, and (4) Imaginative
This document is aimed primarily at Informal Learning (IFL) educators working with adult learners from disadvantaged and underserved communities, who wish to:
exploit the inclusive nature of Tinkering to create engaging and relevant STEM learning experiences for adult learners and their families
better understand how and why collaboration and co-design with community organisations can help develop more inclusive programming in STEM learning for adults.
It can also serve as a useful reference for community leaders and adult educators wishing to collaborate with the IFL sector