More Like this

1. Integrating STEM and Computing in PK-12: Operationalizing Computational Thinking for STEM Learning and Assessment

   https://doi.org/10.22318/icls2020.1479  

   Grover, S. ; Biswas, G. ; Dickes, A. ; Farris, A. ; Sengupta, P. ; Covitt, B. ; Gunckel, K. ; Berkowitz, A. ; Moore, J. ; Irgens, G. A. ; et al ( June 2020 , The Interdisciplinarity of the Learning Sciences, 14th International Conference of the Learning Sciences (ICLS) 2020)

   Gresalfi, M. ; Horn, I. S. (Ed.)

   There is broad belief that preparing all students in preK-12 for a future in STEM involves integrating computing and computational thinking (CT) tools and practices. Through creating and examining rich “STEM+CT” learning environments that integrate STEM and CT, researchers are defining what CT means in STEM disciplinary settings. This interactive session brings together a diverse spectrum of leading STEM researchers to share how they operationalize CT, what integrated CT and STEM learning looks like in their curriculum, and how this learning is measured. It will serve as a rich opportunity for discussion to help advance the state of the field of STEM and CT integration. 

   more » « less
2. Seeds of (r)Evolution: Constructionism Co-Design with High School Science Teachers

   Kelter, J. ; Peel, A. ; Bain, C. ; Anton, G. ; Dabholkar, S. ; Aslan, U. ; Horn, M.S. ; Wilensky, U. ( June 2020 , Constructionism 2020)

   In the decades since Papert published Mindstorms (1980), computation has transformed nearly every branch of scientific practice. Accordingly, there is increasing recognition that computation and computational thinking (CT) must be a core part of STEM education in a broad range of subjects. Previous work has demonstrated the efficacy of incorporating computation into STEM courses and introduced a taxonomy of CT practices in STEM. However, this work rarely involved teachers as more than implementers of units designed by researchers. In The Children’s Machine, Papert asked “What can be done to mobilize the potential force for change inherent in the position of teachers?” (Papert, 1994, pg. 79). We argue that involving teachers as co-design partners supports them to be cultural change agents in education. We report here on the first phase of a research project in which we worked with STEM educators to co-design curricular science units that incorporate computational thinking and practices. Eight high school teachers and one university professor joined nine members of our research team for a month-long Computational Thinking Summer Institute (CTSI). The co-design process was a constructionist design and learning experience for both the teachers and researchers. We focus here on understanding the co-design process and its implications for teachers by asking: (1) How did teachers shift in their attitudes and confidence regarding CT? (2) What different co-design styles emerged and did any tensions arise? Generally, we found that teachers gained confidence and skills in CT and computational tools over the course of the summer. Only one teacher reported a decrease in confidence in one aspect of CT (computational modeling), but this seemed to result from gaining a broader and more nuanced understanding of this rich area. A range of co-design styles emerged over the summer. Some teachers chose to focus on designing the curriculum and advising on the computational tools to be used in it, while leaving the construction of those tools to their co-designers. Other teachers actively participated in constructing models and computational tools themselves. The pluralism of co-design styles allowed teachers of various comfort levels with computation to meaningfully contribute to a computationally enhanced constructionist curriculum. However, it also led to a tension for some teachers between working to finish their curriculum versus gaining experience with computational tools. In the time crunch to complete their unit during CTSI, some teachers chose to save time by working on the curriculum while their co-design partners (researchers) created the supporting computational tools. These teachers still grew in their computational sophistication, but they could not devote as much time as they wanted to their own computational learning. 

   more » « less
3. Computational Thinking in Practice: How STEM Professionals Use CT in Their Work

   Beheshti, E. ( April 2017 , American Education Research Association Annual Meeting 2017)

   The goal of this study is to bring current computational thinking in STEM educational efforts in line with the increasingly computational nature of STEM research practices. We conducted interviews with STEM practitioners in various fields to understand the nature of CT as it happens in authentic research settings and to revisit a first iteration of our definition of CT in form of a taxonomy. This exploration gives us insight into how scientists use computers in their work and help us identify what practices are important to include in high school STEM learning contexts. Our findings will inform the design of classroom activities to better prepare today’s students for the modern STEM landscape that awaits them. 

   more » « less
4. Same soup, different bowl: Understanding the mentoring attitudes of STEM doctoral faculty at HBCUs

   Merriweather, Lisa ; Douglas, Niesha ; Howell, Cathy ; Sanczyk, Anna ( August 2022 , ASEE Annual Conference proceedings)

   ackground: Historically Black College and Universities (HBCUs) have for decades played a pivotal role in producing Black scientists. Research found that HBCUs, despite being under funded and resourced, were responsible for over 10% of Black scientists with doctorates. Even though most earn their doctorates at Historically White Institutions (HWIS), understanding the experience of Black STEM doctoral students at HBCUs is of paramount importance to impacting opportunity for success for underrepresented population groups. HBCUs are recognized for approaches to learning and learning environments that are more relational, encouraging peer to peer and student to faculty relationships, particularly in the form of same-race and same sex mentorships, resulting in less negative racialized gendered experiences and less competitive atmospheres. In spite of what appears to be accepted truths, such as HBCUs offering more culturally affirming experiences, some researchers suggests that little empirical research exists on the quality of support structures available for graduate students at HBCUS in STEM academic fields, particularly mentoring. Increased understanding would provide essential framing necessary for developing more effective mentors at HBCUs, especially given that there are limited numbers of Black faculty in STEM, even at HBCUs. Theoretical Framework: Anti-racism and critical capital theory are employed as theoretical frameworks. Both are well suited for questioning taken-for-granted assumptions about the lived experiences of racialized others and for deconstructing systemic issues influencing common faculty practices. These frameworks highlight the contextual experiences of STEM doctoral learning. Research Design: The researchers were interested in understanding how STEM doctoral faculty at HBCUs perceive their role as mentors. An NSF AGEP sponsored social science research project explored the dispositions, skills, and knowledge of eight STEM faculty at a HBCU. Attitudes towards culturally liberative mentoring were explored through a qualitative case study. The participating faculty were involved in an institutional change program and were interviewed for an average of 60 minutes. Constant comparative data analysis method was used. Additionally, STEM faculty from participating departments completed two mentoring competency and attitude inventories. This case was drawn from a larger multiple embedded case study. Research Findings: The research findings indicate that STEM doctoral faculty mentors at HBCUs express attitudes about mentoring that are not all that different from their PWIS counterparts. They have a tendency to hold deficit views of domestic Black students and have minimal awareness of how culture inhibits or facilitates a positive learning experience for Black students. Further the culture of science tended to blind them from the culture of people. Research Implications: In order to enhance the learning experiences of Black STEM doctoral students at HBCUs, the Black student experience at HBCUs must be deromanticized. Understanding the impact of anti-Black racism even within an environment historically and predominantly Black is imperative. Recognizing the ways in which anti-Black attitudes are insidiously present in faculty attitudes and practices and in environments perceived as friendly and supportive for Black students highlights opportunities for STEM faculty development that can move toward a more culturally liberative framework. 

   more » « less
5. Workshops and Co-design Can Help Teachers Integrate Computational Thinking into Their K-12 STEM Classes

   Wu, S. ; Peel, A. ; Bain, C. ; Anton, G. ; Horn, M. ; Wilensky, U. ( April 2020 , Proceedings of International Conference on Computational Thinking Education 2020)

   Kong, S.C. (Ed.)

   This work aims to help high school STEM teachers integrate computational thinking (CT) into their classrooms by engaging teachers as curriculum co-designers. K-12 teachers who are not trained in computer science may not see the value of CT in STEM classrooms and how to engage their students in computational practices that reflect the practices of STEM professionals. To this end, we developed a 4-week professional development workshop for eight science and mathematics high school teachers to co-design computationally enhanced curriculum with our team of researchers. The workshop first provided an introduction to computational practices and tools for STEM education. Then, teachers engaged in co-design to enhance their science and mathematics curricula with computational practices in STEM. Data from surveys and interviews showed that teachers learned about computational thinking, computational tools, coding, and the value of collaboration after the professional development. Further, they were able to integrate multiple computational tools that engage their students in CT-STEM practices. These findings suggest that teachers can learn to use computational practices and tools through workshops, and that teachers collaborating with researchers in co-design to develop computational enhanced STEM curriculum may be a powerful way to engage students and teachers with CT in K-12 classrooms. 

   more » « less