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When we adopt an inquiry stance towards learning, we start to see things differently. Taking an inquiry stance towards learning involves a shift in mindset and practice for both student and teacher. It allows us to move beyond doing inquiry towards being inquisitive.

Scientific inquiry causes students to use higher order thinking skills and learn science from a minds-on approach. Inquiry's foundation originates with John Dewey. In Dewey's book Democracy in Education (1916), he indicates that education begins with the curiosity of learners. Student curiosity and involvement in scientific inquiry moves them beyond passive learning to higher order thinking.

If we believe that all learning is a consequence of thinking, then we should consider what types of thinking our learners are likely to benefit from at each phase of their inquiry. This is where the Understanding Map, developed by Ritchhart, Church & Morrison offers useful guidance. By contemplating the demands of each phase of our chosen inquiry model, we can plan for how we might scaffold thinking moves which will enhance our learners' learning.

Recently I have been contemplating how we might define inquiry. Like many terms in education, it is often used in multiple contexts and has a range of meanings attached to it. Coming to agreement on what inquiry is, requires negotiating seemingly divergent understandings. If we are to avoid oversimplifications and dichotomous thinking, we need to explore these multiple perspectives and find a balance point.

Teaching strategies of guided and student initiated inquiry are the basis of learning science when conducting scientific investigations.

Scientific inquiry causes students to use higher order thinking skills and learn science from a minds-on approach. Inquiry's foundation originates with John Dewey. In Dewey's book Democracy in Education (1916), he indicates that education begins with the curiosity of learners.

There is a debate taking place in the world of education. It is not a new debate but recently it has gathered new energy and the boundary between polite discussion of opposing views and hostility has been stretched. The debate is that between those who are advocates of inquiry based learning and those who believe direct instruction produces the best outcomes. - This article explore how the debate has gone wrong and fails to serve the needs of learners.

A list of some of best science books for K-12 science education is provided along with links to additional science book resources to support scientific inquiry.

Questioning is a critical focus in science, because without questions there would be no answers. Teaching children to question is an inquiry-based thinking skill.

When we are young, we are naturally curious. We ask many, many questions. As we encounter the world, our consciousness is bombarded by a plethora of opportunities for curiosity. And at this early stage of exploring and discovering the world we inhabit, there is no filter between our sense of curiosity and our expression of our it. If we are curious, we will be asking questions and heaven help anyone close enough to be a potential source of answers. - At school, our relationship to both curiosity and inquiry changes.

This is a presentation for a webinar that helps teach teachers the differences between problem, project, and inquiry based-learning strategies

Professional Development from Library of Congress. Intro to Library of Congress, "Supporting Inquiry with Primary Sources," "Copyright and Primary Sources," Analyzing Primary Sources: Photographs and Prints," Analyzing Primary Sources: maps,: and "Finding Primary Sources"

Stimulating critical thinking using technology has the potential to create more in depth understanding of science and math content by students when engaged in learning activities which integrate in-class and on-line technology resources. Technology tools support stimulation of both inquiry-based and critical thinking skills by engaging students in exploring, thinking, reading, writing, researching, inventing, problem-solving, and experiencing the world outside their classroom. This is accomplished through learning content through the lens of video to multimedia to the internet (Using Technology to Improve Student Achievement, NCREL, 2005).

Science activities around inquiry-based Full Option Science System, including PD and curriculum and a newsletter

The only way to truly understand the properties of matter and changes which occur in the properties of matter is to conduct and inquiry-based investigation.

Students' interest in learning science is sometimes based on inquiry into facts that others do not know or learning facts they have no prior knowledge or experiences.

Despite this being a 'thinking' conference, despite us all being advocates for structured and scaffolded models of thinking, not one group had applied any thinking routines, utilised a collaborative planning protocol or talked about applying an inquiry model or design thinking cycle. It wasn't that we didn't know about them. It wasn't that we don't know how to use them. It wasn't that we don't value them. We had all the knowledge we could desire on the how to and the why of a broad set of thinking tools and anyone of these would have enhanced the process, but we did not use any of them. Why was this the case and what does this reveal about our teaching of these methods to our students?

I keep a blog as a system of collective critical inquiry and reflection. A way to leverage the wisdom of the crowd and its resources by querying various virtual venues. An online brain trust, if you will. I would love to hear from you! And please share with your friends.

Students make connections with many science concepts and communicate their recommendations to officials and organizations regarding the future of artificial reefs.