Pedagogical Content Knowledge

Professional development projects aim to improve student learning by directly impacting teachers. However, the work of teachers (and thus the potential impact of professional development) is often impacted by a number of policy and context-related factors. This poses a challenge not only in programming designed to impact teachers, but also to the ability to detect these impacts through rigorous research designs.

Over the past five years, research teams at Western Washington University and North Carolina State University have each conducted longitudinal studies to examine elementary teacher development in mathematics and science. Specifically, they have investigated the development of pre-service/novice teachers’ knowledge, beliefs, and instructional practices during teacher preparation and into their initial years of teaching. 

The vision of meaningful learning in science from NGSS and the National Research Council’s A Framework for K-12 Science Education requires reform efforts that address 1) curricular issues (what is being taught); and 2) pedagogical practices (what teaching will look like with emphasis on both the practices of science and engineering and the integration of the Common Core State Standards – English Language Arts).

In order to broaden the participation of underrepresented student groups, such as students with disabilities and English Language Learners (ELL), mathematics professional development (PD) programs need to include educators with different areas of expertise, not just mathematics teachers. This session will focus on the benefits and challenges of creating effective PD programs that bring together educators with different roles to build knowledge, practices, and collaboration for improving the mathematics learning of all students.

Work in secondary mathematics education takes many approaches to content, pedagogy, professional development and assessment. This session aims to illuminate the richness of hte content of secondary mathematics and the field of secondary mathematics education by sharing two such approaches and reflecting on the differences and commonalities between the two.   

“Solution diversity” has been proposed as one key characteristic that distinguishes engineering design from other disciplinary pursuits. Engineering designers recognize that for any design problem, there will be multiple acceptable solutions, and informed designers have been found to strive for “idea fluency” through divergent thinking techniques that assist them in exploring the design space (Crismond & Adams, 2012).

Quality elementary science programs are faced with the challenge of adapting and/or building upon the Next Generation Science Standards (NGSS) in order to provide an essential foundation for student learning and interest in science. As such, these science programs must address how the practices of science can be linked with cross-cutting concepts through meaningful learning contexts that, of necessity, evolve progressively across grades.