Note: The 5 Required Areas are addressed throughout the narrative. This format does not need to be followed exactly. This is just an example.
Areas Addressed below:
-
A clear rationale of the need for the work addressed, and for the strategies and/or tools with which the work is carried out. The plan must be supported by evidence-based practices and clearly demonstrate that the work is reciprocal in nature
-
Work should have a conceptual or theoretical basis; i.e., it is conducted within the context of existing peer-reviewed knowledge. Normally, this is accomplished through a review of related work in the area, showing what has been done in the past and providing a rationale for why additional work is needed.
In 2010, a university-school district partnership was formed between the Department of Elementary and Bilingual Education at California State University, Fullerton, and an elementary school site within the School District. Over the years, our CSU Exit Surveys indicated that while our overall ratings exceeded the system average, science was one of the subject areas in which our teacher candidates felt least prepared to teach. Based on anecdotal evidence, our department felt this was directly correlated with what our candidates were experiencing in the field. Teacher candidates reported observing very little science instruction and even fewer opportunities to teach science during their student teaching experiences. The original focus of the partnership was science instruction in grades TK-5. Over the last 6 years, this partnership has expanded to include Science, Technology, Engineering, and Math, and is referred to as the Partnership. The learning outcomes and goals associated with this collaborative effort include high-quality instruction to help elementary students develop knowledge, skills, and positive attitudes in these key areas, while also providing Cal State Fullerton’s teacher candidates with an opportunity to observe, teach, and reflect in an authentic classroom environment.
Despite increased attention to science education through STEM initiatives and the adoption of the Next Generation Science Standards, science teaching in elementary schools remains a concern. Many elementary teachers continue to rely on teacher-led discussions, explanations, and demonstrations rather than on student engagement in authentic investigation and exploration to construct knowledge. Facilitating inquiry science is challenging for many elementary teachers because it requires disciplinary knowledge, as well as pedagogical skills and confidence to engage students in activities such as questioning, evidence gathering, and explanation. Thus, effective teaching requires what Shulman called pedagogical content knowledge (PCK) (Shulman, 1986). A component of PCK particularly relevant to this partnership is how preservice teachers understand content, design instructional experiences, and engage elementary students in inquiry practices to support student learning.
However, facilitating inquiry science is challenging, requiring in-depth disciplinary knowledge and pedagogical skills that many teachers do not possess (Dorph et al., 2007; Houston, Fraser & Ledbetter, 2008). Although teachers have reported practicing inquiry-based instruction, researchers have found a disconnect between their descriptions of their practice and what actually occurs in many classrooms (Munck, 2007; Tan & Wong, 2012). Bergman and Olson (2011) assert that “hands-on science is half the battle” (p. 44). Inquiry involves more than physical manipulation of materials. Critical and analytical reasoning coupled with self-discovery through exploration are key components of an inquiry lesson (Bergman & Olson, 2011; Gibson & Chase, 2002; National Research Council, 2000).
The role of the teacher is significant, and it is essential to provide pre-service teachers with opportunities to build their content knowledge and pedagogical skills through authentic experiences. The context of this partnership aims to provide these experiences.