Our Watershed
Marcum-Dietrich, N., Kerlin, S., Staudt, C., & Daniels, M. (2018). Our watershed. The Science Teacher, 85(2).
In this article, students use data and models to make a difference in their own school yard.
Marcum-Dietrich, N., Kerlin, S., Staudt, C., & Daniels, M. (2018). Our watershed. The Science Teacher, 85(2).
In this article, students use data and models to make a difference in their own school yard.
Marcum-Dietrich, N., Kerlin, S., Staudt, C., & Daniels, M. (2018). Our watershed. The Science Teacher, 85(2).
In this article, students use data and models to make a difference in their own school yard.
Marcum-Dietrich, N., Kerlin, S., Staudt, C., & Daniels, M. (2018). Our watershed. The Science Teacher, 85(2).
In this article, students use data and models to make a difference in their own school yard.
The theory of realistic mathematics education establishes that framing mathematics problems in realistic contexts can provide opportunities for guided reinvention. Using data from a study group, I examine geometry teachers' perspectives regarding realistic contexts during a lesson study cycle. I ask the following. (a) What are the participants' perspectives regarding realistic contexts that elicit students' prior knowledge? (b) How are the participants' perspectives of realistic contexts related to teachers' instructional obligations?
This article examine geometry teachers' perspectives regarding realistic contexts during a lesson study cycle. I ask the following. (a) What are the participants' perspectives regarding realistic contexts that elicit students' prior knowledge? (b) How are the participants' perspectives of realistic contexts related to teachers' instructional obligations? (c) How do the participants draw upon these perspectives when designing a lesson?
This article features EarSketch -a STEAM learning intervention that combines a programming environment and API for Python and JavaScript, a digital audio workstation, an audio loop library, and a standards-aligned curriculum to teach introductory computer science together with music technology and composition.
American Museum of Natural History. (2012, October 25). Master of Arts in Teaching Program at the Museum [Video File].
Teachers learn to teach Earth and Space science through the American Museum of Natural History's Master of Arts in Teaching Urban Residency Program (MAT), the first urban teacher residency program offered by a museum. The MAT program is a unique 15-month fully paid teaching fellowship that includes learning experiences in the Museum's world-renowned collections and teaching residencies with experienced science teachers in partner schools.
American Museum of Natural History. (2013, December 23). MAT Graduates Reflect on Pioneering Program [Video File].
In this video, find out more about the Museum's Master of Arts in Teaching (MAT) program from five MAT graduates in the class of 2013, who are now teaching in New York City's public schools. The MAT program with a specialization in teaching Earth Science is a unique 15-month fully paid teaching fellowship that includes learning experiences in the Museum's world-renowned collections and teaching residencies with experienced science teachers in partner schools.
Cascarano, C. & Koirala, S. [New York Times]. (2013, December 15). Teaching Science Teachers [Video File].
New York Times Video on the American Museum of Natural History's master's degree program in teaching, part of a broad national campaign to add 100,000 science, technology and math teachers by 2021.
The traditional model for supervision of pre-service science teachers during the field experience within teacher preparation programs includes the appointment of a university supervisor who is often a retired teacher and/or adjunct faculty and a school-based co-operating teacher who rarely receives training from the university to be a mentor. This can lead to a disconnect between the university supervisor, co-operating teacher, and university, and a disjointed experience for the pre-service teachers.
This paper describes a residency model that includes faculty members who serve as Senior Specialists – mentors in school residency rotations, advisors in teaching as a profession, and co-instructors in academic courses and portfolio development. The Senior Specialist acts as the linchpin between the youth programs, science practicum, and courses as well as a support structure and anchor to the five high need, low achieving partner schools with the ultimate goal of strengthening the pre-service teachers’ experience.
While the scholarship examining the teaching of high leverage teaching practices in the context of pre-service teacher education is continuing to grow (Ball & Forzani, 2009; McDonald, Kazemi, & Kavanaugh, 2013; Windschitl, Thompson, Braaten & Stroupe, 2012), fewer teacher educators have been examining how to bring those who mentor pre-service teachers, sometimes called cooperating teachers or pre-service mentor teachers, into this effort.
This paper reviews the literature on mentor teachers’ learning in relationship to high leverage practices and summarizes existing research on mentoring and experienced teacher learning that might help inform the design of our model of mentor teachers’ learning.