Rigor and Equity by Design: Locating a Set of Core Teaching Practices for the Science Education Community

2016 ◽  
pp. 1099-1158 ◽  
Author(s):  
Mark Windschitl ◽  
Angela Calabrese Barton
2021 ◽  
Vol 17 (2) ◽  
pp. 482-483
Author(s):  
Bethanie Carney Almroth ◽  
Noomi Asker ◽  
Giedrė Ašmonaitė ◽  
Lina Birgersson ◽  
Frida Book ◽  
...  

Author(s):  
Lilia Reyes Herrera Reyes Herrera ◽  
Luis Enrique Salcedo

Although scence curricula vary widely among countries, states, school districts,individual schools and individual classrooms, the understanding and enhancement ofscience teaching and learning is so limited in most of them that it is a global concern.Teacher’s conceptions play an important role in the implementation of a sciencecurriculum, consequently; the study and development of teacher conceptions of thenature of science education has become one of the most important goals of thescience education community. Although in the last twa decades this has been aprolific area of research, it is yet to be researched more deeply. The overallpurposeof this research is to explore the nature of the referents used by science teacherswhen engaged in science instruction and to elucidate patterns of beliets, goals, rolesand context which guide teachers actions and interactions. The kind of research weare doing argue tora change in teachers’ epistemology empowering them to takeinformed decisians to break away fram dominant practices which have been presentín the community without deep questioning.


2016 ◽  
Vol 17 (2) ◽  
pp. 229-245 ◽  
Author(s):  
Halil Tümay

Identifying students' misconceptions and learning difficulties and finding effective ways of addressing them has been one of the major concerns in chemistry education. However, the chemistry education community has paid little attention to determining discipline-specific aspects of chemistry that can lead to learning difficulties and misconceptions. In this article, it is argued that emergence plays a critical role in the epistemology and the ontology of chemistry and hence it should be taken into account for understanding learning difficulties and finding ways of addressing them in chemistry. It is particularly argued that one of the fundamental sources of learning difficulties and chemical misconceptions is learners' failure to understand the emergent nature of chemical entities, their properties, and interactions. In this article, an interpretive analysis framework is suggested for identifying specific learning demands and the sources of learners' misconceptions about the emergent chemical properties and phenomena. Findings from previous research on learners' misconceptions regarding emergent chemical properties are reanalyzed and interpreted through this framework. Inadequacies of typical teaching practices and their consequences are discussed from an emergentist perspective. Finally, implications of the emergentist perspective for more meaningful chemical education are discussed.


2021 ◽  
Author(s):  
◽  
Blair Daniel Northcott

<p>Nature of Science (NOS) is a core part of science education. Extensive effort has gone into establishing educationally appropriate NOS tenets, teaching practices and assessments tools. However, while previous research has identified the importance of prior knowledge in science education, there is limited research that investigates students’ prior knowledge and beliefs about NOS. This information is critical in identifying what teachers need to target in order develop informed NOS beliefs amongst students. In this study the NOS beliefs of year 11 secondary school students in New Zealand were explored using a mixed methods approach. Factor analysis of the students’ (N=502) NOS questionnaire responses revealed that students’ conceptions of NOS differed from the constructs identified in the NOS literature. Coding of the purposively selected sample of student interviews (n=22) revealed a naïve realist model of science was common. This model along with the alternative constructs provided insights into students’ NOS conceptions. The findings were used to develop a model that could help teachers’ better identify explicit and implicit teaching practices to help students develop more appropriate NOS models.</p>


Author(s):  
Marta R. Ariza ◽  
Antonio Quesada

This chapter offers a brief overview of the main ideas underlying the learning object (LO) paradigm, with special emphasis placed on pedagogical aspects. Requirements for the interoperability and reusability of learning objects (LOs) are discussed, with attention drawn to the need of developing new metadata models to fully benefit from this approach. The authors also claim a wider utilization of LO principle design based on educational research, to improve the chances of promoting efficient learning. A literature review on technology and science education is also provided, revealing a gap between computer and learning science, in relation to the embracement of the LO paradigm. Reflections on this situation and implications for the science education community are also included. Finally, one project on computer-supported science education is analyzed from the perspective of interoperability and reusability.


Sign in / Sign up

Export Citation Format

Share Document