NGSS 3 -Dimensional Learning: Hands-on Minds-on Science

“The more hands on the experience, the more excited students will be about the learning.  The more minds-on the experience, the deeper the understanding will become.”

How do we design experiences for students that are both hands-on and minds-on?  The Next Generation Science Standards provides us with a beautiful vision for science education for all students obtained by engaging in the Science and Engineering practices and applying Cross-cutting Concepts to gain an understanding of Disciplinary Core Ideas.  This 3- Dimensional Learning (the blending of the three dimensions of Disciplinary Core Ideas, Science and Engineering Practices, and Crosscutting Concepts driving both the instructional progression and the assessment) is the most significant way that the NGSS differs from prior standards and is thus a challenge for many teachers.  In the NGSS, the 3 -Dimensional Learning in the classroom leads to proficiency demonstrated in the Performance Expectations. This blog uses a learning progression around Performance Expectations LS1-2 and LS1-3 as a context for sharing thinking around how NGSS 3- Dimensional Learning can provide students with hands-on minds-on experiences that lead to engagement and understanding.

Urinary PEs

This summer, I transitioned from focusing on understanding the Next Generation Science Standards to focusing on understanding how to translate the NGSS into student learning within my classroom.  I developed a unit, Introduction to Anatomy and Physiology: Systems, Subsystems, and Balance: Conceptualizing a Single System, to serve as the foundation for my course and the start of our NGSS road together.  I designed the learning progression around this core principles:

  • All NGSS aligned instruction must have students working to explain a phenomenon or solve a problem.

 Joe Tweet

  • Understanding develops as learners make new connections between their prior knowledge and the new experience. Understanding is built over time with each new experience.  This evolution is ongoing and flexible.

Making the unit’s center an evidence-based explanation of a phenomenon and student’s building/revising understanding of the science needed to communicate this explanation over time is key to designing a unit storyline that exemplifies 3-dimension learning while providing coherence between learning experiences. The progressions of these learning experiences involved a deliberate planned iteration of:

Exploration- learner actively constructing understanding

Reflection- making internal connection as well as external sharing of the experience through discussion and feedback

Extension– transferring understanding to a new context/ cements the experience and leads to deep understanding of the core ideas

The Exploration is Hands-on. The Reflection is minds-on. The Extension gives students the opportunity to transfer knowledge gained from these stages to a new context leading to deep understanding.

Over the next month, I will share a blog reflection around how each of the critical elements listed above were integrated into my unit plan. My hope is that by making my thinking public and sharing my unit, I can receive feedback from the Science education community so I can grow in my capacity to design NGSS experiences for my students.  I also hope that my reflections may support others on their NGSS journey and contribute to the collective conversation and effort to shift science education to prepare our students for career, college and life.

The framework and NGSS can provide us with a beautiful vision.  It is the work of classroom teachers and those that support classroom learning that makes the vision come to fruition.  Teachers sharing classroom stories and practical applications of the standards are the impetus that leads to improved science practice for all.

Please support my growth by providing feedback on my unit and my blog reflections and consider sharing your classroom stories, instructional and assessment designs, and reflections around the NGSS with me and the NGSS PLN so you can move our learning and thinking.

Thank you

Trish

Advertisements

Using the 5E’s Instructional Framework to Implement the NGSS in Your Classroom

This blog was published in the August edition of Science Connection published by the Kentucky Department of Education

http://education.ky.gov/comm/Documents/Science%20Connection%20August%202014.pdf

I appreciate national science standards because they articulate a set of clear, consistent and challenging goals for science achievement for all students.  This common language around a shared vision lends itself to global conversations and collaborations to enhance student learning. At the core of the Next Generation Science Standards is a focus on the student as the constructor of meaning through immersion in the science and engineering practices to learn core ideas and make connections to unifying science concepts.  This is a conceptual shift in science education, illuminating the need for classroom experiences to reflect “the interconnected nature of science as it is practiced and experienced in the real world.” (NGSS, Appendix A).  How can teachers begin to implement the Next Generation Science Standards and create this vision in their own classroom?  The 5E’s framework is an effective way to plan a learning progression around a performance expectation (or bundle of performance expectations)  while supporting the NGSS vision of students as the active meaning makers in the classroom.

The 5 E’s framework was developed by the Biological Sciences Curriculum Study (BSCS) based on the constructivist view of learning.

5Es

Source: The BSCS 5E Instructional Model: Origins, Effectiveness, and Applications. Roger W. Bybee, Joseph A Taylor, April Gardner, Pamela Van Scotter, Janet Carlson Powell, Anne Westbrook, Nancy Landes. BSCS July 2006

 

The BSCS 5E’s incorporates research that has advanced our understanding of the best ways that students learn and incorporates these findings into a framework to improve classroom instruction through mindful planning and sequencing of instruction and assessment.  The 5E’s framework requires a change in role for many teachers from “sage on the stage” to “guide on the side,” as well as instruction integrating the three dimensions: core ideas, practices and crosscutting concepts. During a 5E’s sequence, students begin by tapping into their own curiosity or by connecting to their own experiences and continually build on and revise their understanding. Each “E” serves a purpose in building the scaffolding necessary for students to construct their own knowledge. The teacher needs to be intentional and explicit with this planning to layer this scaffolding appropriately, address misconceptions, and not leave gaps in students’ learning.  Students are the thinkers, meaning makers, constructors of knowledge in all but possibly one of the E’s.  (During the Explain phase is the only time teachers should be communicating meaning.)

The 5E’s in action:  students acting and thinking like scientists.

As I walk down the path of NGSS implementation, the 5E’s  have been a very useful tool for planning my instructional and assessment sequence, and for me to facilitate student learning. I have found that to effectively support students in this learning progression, my work centered on coaching students through questioning to help them develop their understanding. This means using formative assessment data to develop those possible guiding questions for class experiences ahead of time and seeking information on possible misconceptions before doing the actual lesson. It also means providing planned and intentional time for reflection and collaboration throughout the lesson. These shifts have resulted in a vibrant, engaged classroom focused on discovery with assessment data indicating a deep understanding of the core ideas of science.

As you begin planning for the 2014-15 school year, you may want to consider starting with the 5E’s as an understandable and manageable tool to support NGSS instructional planning and provide the type of coherence between lessons needed to result in student understanding, application, and transfer of that understanding to new contexts.  By starting with the 5E’s, teachers can begin to reflect on making changes to improve their craft and providing their students with well-engineered, rich, engaging learning experiences so they can achieve the goal of our national standards.