May/June 2017 – Vol. 29 No. 7

What We Have Here is a Failure to Communicate: Evaluating Negotiation in an Elementary Science Classroom

Posted: Thursday, April 3rd, 2014

by Mason Kuhn

Engaging students in negotiation with their peers is considered a central motivation for recent national policy recommendations (National Research Council, 2011) and has been a focus of much scholarship in science education (e.g. Bergland and Reiser, 2009 & Hand, 2008). In the Next Generation Science Standards under the heading “Science and Engineering Practices,” the term “Engaging in Argument From Evidence” appears in almost every standard. However, most literature on negotiation focuses on theory, where little focuses on the topic of negotiation as related to science teaching and learning. The purpose of this paper is to present an approach to enhancing authentic student negotiation in a 4th grade classroom.  The theoretical framework used by the teacher in this paper is the Science Writing Heuristic (SWH). The SWH is a writing-to-learn approach (Keys et al,1999) that helps a science classroom community to embed science negotiation as a core component of their inquiry experience.

Setting the Stage for Success

Many times the terms “argument” and “negotiation” are used as synonyms, but when you examine them more closely they are quite different. The meaning of the word argument can be confusing to students, especially younger children, because many times it carries a negative implication (Schoering & Hand, 2013). In an argument the goal is to win and opposing views are dismissed in fear that the other person will gain ground and be the victor. Negotiation does not have these negative connotations; in a negotiation people work together to shape and improve ideas (Schoering & Hand, 2013). An argument can be thought of as a divisive activity where a negotiation can be thought of as a collaborative event. It is important to differentiate between scientific negotiation and typical arguing that goes on between people, which is seldom based on empirical evidence and usually involves opinions, beliefs and emotion. The purpose of a dispute is for one person’s point of view to prevail over another’s. In scientific negotiation, however, explanations are generated, verified, communicated, debated, and modified. So, a critical first step in creating a classroom climate contusive to negotiation is to ensure to your students that all initial thoughts are valid and welcome.

Negotiation in the Classroom

According to the National Research Council (2009): “Students come to the classroom with preconceptions about how the world works. If their understanding is not engaged, they may fail grasp new concepts and information presented in the classroom.” (p.2) Long gone is the belief that students come to the classroom as an empty vessel waiting patiently to be filled with knowledge by the teacher. But what do teachers do with these preconceptions that the students bring? Many teachers elect to have their students fill out a KWL chart, then simply move on to the next step in their unit plan. The SWH approach differs because it asks students to do something with those preconceptions. Typically, teachers prepare an activity to elicit big ideas and concepts from their students. There are a variety of different activities that could be used to start a unit (i.e. thought experiments, journal writing, mini-activities, PWIM, etc.). The type of activity is not important; the critical component of the activity is that it will expose the students’ ideas. An example I recently used was a mini-activity to observe the students’ conceptual understanding of Next Generation Science Standard 4-PS4-2.”Develop a model to describe that light reflecting from objects and entering the eye allows objects to be seen.” Students were asked to get in pairs and complete the “Shrinking Pupil” activity.

The students took turns putting a bag over their head and observing their partner as their pupil shrank as it adjusted to the light of the room.

The students took turns putting a bag over their head and observing their partner as their pupil shrank as it adjusted to the light of the room.

Each student filled out a worksheet asking them to try to explain what happened during the experiment, and how they believe the interaction between eye, light, and object are related. The teacher’s role during this part of the lesson was not to provide the correct answer; instead, after individual writing and small group discussions, the teacher asked students to find others in the classroom who had similar beliefs. Once the students found some “conceptual friends” the teacher set the stage for student-to-student negotiation.  Interestingly, in this experiment there was an almost 50/50 split of students who held the correct conception (light reflects off an object and then enters the eye) and a misconception (light enters the eye and then projects out to see the object). The students were then given a day to research their claims using a worksheet and access to the computer lab to search for evidence.

During the “Negotiation Day” this student pointed out that if the eye projected out light (like the group with the misconception believed) you would be able to see a small piece of paper with a letter written on it at the end of an enclosed tube. She even took apart a flashlight to prove her point. These moments of inquiry would not happen in a lecture-based classroom. This example served two roles: It helped the student negotiating for the correct concept because she took her prior knowledge and applied it in an authentic, new setting; and it helped the students who came in with a misconception because they saw a real example of how their conception does not follow the law of physics.

During the “Negotiation Day” this student pointed out that if the eye projected out light (like the group with the misconception believed) you would be able to see a small piece of paper with a letter written on it at the end of an enclosed tube. She even took apart a flashlight to prove her point. These moments of inquiry would not happen in a lecture-based classroom. This example served two roles: It helped the student negotiating for the correct concept because she took her prior knowledge and applied it in an authentic, new setting; and it helped the students who came in with a misconception because they saw a real example of how their conception does not follow the law of physics.

Someone not familiar with this approach of engaging learners may ask: “Why don’t you just tell the students which concept is correct?” Existing views in philosophy of science propose a more effective model of conceptual change. Posner et al. (1982) view conceptual change as the process whereby a learner’s existing beliefs change over the course of that person’s experience with established concepts. If the learner is adding new knowledge to the framework that is not radical but rather extends or strengthens the framework, then it is considered to be assimilated into the existing framework (Norton-Meier, Hand, Hockenberry, & Wise, 2008).  Accommodation is a process where students must replace or reorganize their central concepts (Posner et al., 1982). Once prior knowledge conflicts with existing conceptions, and then it cannot become credible or useful until the learner becomes dissatisfied with their old conceptions (Hewson, 1992). In the classroom example the two groups could be described as a group going through the process of assimilation and a group in need of accommodation. Simply telling the group in need of accommodation that they are wrong will not raise the new concept to a status that holds more weight than their current belief. In my experience having students research their claim and negotiating with their peers has been an effective way to promote accommodation. The teacher can facilitate the research day in a number of ways, for example, schedule a trip to the computer lab to search the internet, provide the students with a packet of information, or pick out books that highlight the correct concepts.  A “Check with the Experts” page is used in the experiment.
The public negotiation has the potential to raise the status of the new concept for the accommodation group and help the assimilation group generalize their understanding of the concept because it 1) Gives the students ownership of their learning 2) Lets them act like actual scientists (backing claims with evidence) 3) Negotiation with peers makes the outcome of the argument more plausible than simply being told by the teacher (Kuhn, 2010). The entire lesson plan for this unit and many others aligned to the Next Generation Science Standards can be found at www.waverlyshellrockswh.weebly.com.

Sample of a five day progression for the described unit (assuming approximately one hour for each lesson).

Sample of a five day progression for the described unit (assuming approximately one hour for each lesson).

References

Berland, L. K., & Reiser, B. J. (2009). Making sense of argumentation and explanation. Science Education, 93(1), 26-55.

Hand, B. (2008). Introducing the science writing heuristic approach. In B. Hand (Ed.), Science inquiry, argument and language: A case for the science writing heuristic. Rotterdam, The Netherlands: Sense Publishers.

Hewson. P. W. (1992). Conceptual change in science teaching and teacher education. Paper presented at a meeting on “Research and Curriculum Development in Science Teaching,” under the auspices of the National Center for Educational Research, Documentation, and Assessment, Ministry for Education and Science, Madrid, Spain.

Keys, C., Hand, B., Prain, V., & Collins, S. (1999). Using the science writing heuristic as a tool for learning from laboratory investigations in secondary school. Journal of Research in Science Teaching, 36(10), 1065 – 1084.

Kuhn, D. (2010). Teaching and learning science as argument. Science Education, 94(5),1–15.

Posner, G., Strike, K. A., Hewson, P.W., & Gertzog, W.A. (1982) Accommodation of a scientific conception: Toward a theory of conceptual change. Science Education. 66(2), 211-27.

Schoering, E. & Hand, B. (2013). Using Language Positively. How to Encourage Negotiation in the Classroom. Science and Children. 50 (9) p. 52-57.

National Research Council. (2009). How People Learn: Brain, Mind, Experience, and School. Commission on Behavioral and Social Sciences and Education National Research Council. Washington, DC: National Academies Press.

National Research Council. (2011). A Framework for K-12 Science Education: Practices, Crosscutting Concepts, and Core Ideas. Committee on a Conceptual Framework for New K-12 Science Education Standards. Board on Science Education, Division of Behavioral and Social Sciences and Education. Washington, DC: National Academies Press.

Next Generation Science Standards (2013). For States, By States. Washington, DC: The National Academies Press.

Norton-Meier, L., Hand, B., Hockenberry, L., & Wise, K. (2008). Questions, claims, and evidence: The important place of argument in children’s science writing. National Science Teacher Association Press.

Mason Kuhn is a 4th Grade Teacher at Shell Rock Elementary. Shell Rock, Iowa and is an EdD. Student at the University of Northern Iowa

Written by California Science Teachers Association

California Science Teachers Association

CSTA represents science educators statewide—in every science discipline at every grade level, Kindergarten through University.

Leave a Reply

LATEST POST

Participate in Chemistry Education Research Study, Earn $500-800 Dollars!

Posted: Tuesday, May 9th, 2017

WestEd, a non-profit educational research agency, has been funded by the US Department of Education to test a new molecular modeling kit, Happy Atoms. Happy Atoms is an interactive chemistry learning experience that consists of a set of physical atoms that connect magnetically to form molecules, and an app that uses image recognition to identify the molecules that you create with the set. WestEd is conducting a study around the effectiveness of using Happy Atoms in the classroom, and we are looking for high school chemistry teachers in California to participate.

As part of the study, teachers will be randomly assigned to either the treatment group (who uses Happy Atoms) or the control group (who uses Happy Atoms at a later date). Teachers in the treatment group will be asked to use the Happy Atoms set in their classrooms for 5 lessons over the course of the fall 2017 semester. Students will complete pre- and post-assessments and surveys around their chemistry content knowledge and beliefs about learning chemistry. WestEd will provide access to all teacher materials, teacher training, and student materials needed to participate.

Participating teachers will receive a stipend of $500-800. You can read more information about the study here: https://www.surveymonkey.com/r/HappyAtoms

Please contact Rosanne Luu at rluu@wested.org or 650.381.6432 if you are interested in participating in this opportunity, or if you have any questions!

Written by California Science Teachers Association

California Science Teachers Association

CSTA represents science educators statewide—in every science discipline at every grade level, Kindergarten through University.

2018 Science Instructional Materials Adoption Reviewer Application

Posted: Monday, May 8th, 2017

The California Department of Education and State Board of Education are now accepting applications for reviewers for the 2018 Science Instructional Materials Adoption. The application deadline is 3:00 pm, July 21, 2017. The application is comprehensive, so don’t wait until the last minute to apply.

On Tuesday, May 9, 2017, State Superintendent Tom Torlakson forwarded this recruitment letter to county and district superintendents and charter school administrators.

Review panel members will evaluate instructional materials for use in kindergarten through grade eight, inclusive, that are aligned with the California Next Generation Science Content Standards for California Public Schools (CA NGSS). Learn More…

Written by California Science Teachers Association

California Science Teachers Association

CSTA represents science educators statewide—in every science discipline at every grade level, Kindergarten through University.

Lessons Learned from the NGSS Early Implementer Districts

Posted: Monday, May 8th, 2017

On March 31, 2017, Achieve released two documents examining some lessons learned from the California K-8 Early Implementation Initiative. The initiative began in August 2014 and was developed by the K-12 Alliance at WestEd, with close collaborative input on its design and objectives from the State Board of Education, the California Department of Education, and Achieve.

Eight (8) traditional school districts and two (2) charter management organizations were selected to participate in the initiative, becoming the first districts in California to implement the Next Generation Science Standards (NGSS). Those districts included Galt Joint Union Elementary, Kings Canyon Joint Unified, Lakeside Union, Oakland Unified, Palm Springs Unified, San Diego Unified, Tracy Joint Unified, Vista Unified, Aspire, and High Tech High.

To more closely examine some of the early successes and challenges experienced by the Early Implementer LEAs, Achieve interviewed nine of the ten participating districts and compiled that information into two resources, focusing primarily on professional learning and instructional materials. Learn More…

Written by California Science Teachers Association

California Science Teachers Association

CSTA represents science educators statewide—in every science discipline at every grade level, Kindergarten through University.

Using Online Simulations to Support the NGSS in Middle School Classrooms

Posted: Monday, May 8th, 2017

by Lesley Gates, Loren Nikkel, and Kambria Eastham

Middle school teachers in Kings Canyon Unified School District (KCUSD), a CA NGSS K-8 Early Implementation Initiative district, have been diligently working on transitioning to the Next Generation Science Standards (NGSS) integrated model for middle school. This year, the teachers focused on building their own knowledge of the Science and Engineering Practices (SEPs). They have been gathering and sharing ideas at monthly collaborative meetings as to how to make sure their students are not just learning about science but that they are actually doing science in their classrooms. Students should be planning and carrying out investigations to gather data for analysis in order to construct explanations. This is best done through hands-on lab experiments. Experimental work is such an important part of the learning of science and education research shows that students learn better and retain more when they are active through inquiry, investigation, and application. A Framework for K-12 Science Education (2011) notes, “…learning about science and engineering involves integration of the knowledge of scientific explanations (i.e., content knowledge) and the practices needed to engage in scientific inquiry and engineering design. Thus the framework seeks to illustrate how knowledge and practice must be intertwined in designing learning experiences in K-12 Science Education” (pg. 11).

Many middle school teachers in KCUSD are facing challenges as they begin implementing these student-driven, inquiry-based NGSS science experiences in their classrooms. First, many of the middle school classrooms at our K-8 school sites are not designed as science labs. Learn More…

Powered By DT Author Box

Written by NGSS Early Implementer

NGSS Early Implementer

In 2015 CSTA began to publish a series of articles written by teachers participating in the NGSS Early Implementation Initiative. This article was written by an educator(s) participating in the initiative. CSTA thanks them for their contributions and for sharing their experience with the science teaching community.

Celestial Highlights: May – July 2017

Posted: Monday, May 8th, 2017

May Through July 2017 with Web Resources for the Solar Eclipse of August 21, 2017

by Robert C. Victor. Twilight sky maps by Robert D. Miller. Graphs of planet rising and setting times by Jeffrey L. Hunt.

In spring and summer 2017, Jupiter is the most prominent “star” in the evening sky, and Venus, even brighter, rules the morning. By mid-June, Saturn rises at a convenient evening hour, allowing both giant planets to be viewed well in early evening until Jupiter sinks low in late September. The Moon is always a crescent in its monthly encounters with Venus, but is full whenever it appears near Jupiter or Saturn in the eastern evening sky opposite the Sun. (In 2017, Full Moon is near Jupiter in April, Saturn in June.) At intervals of 27-28 days thereafter, the Moon appears at a progressively earlier phase at each pairing with the outer planet until its final conjunction, with Moon a thin crescent, low in the west at dusk. You’ll see many beautiful events by just following the Moon’s wanderings at dusk and dawn in the three months leading up to the solar eclipse. Learn More…

Powered By DT Author Box

Written by Robert Victor

Robert Victor

Robert C. Victor was Staff Astronomer at Abrams Planetarium, Michigan State University. He is now retired and enjoys providing skywatching opportunities for school children in and around Palm Springs, CA. Robert is a member of CSTA.