Revitalizing Science Journals: Guided Reflective Writing in Classrooms, Lecture notes of Science education

This article explores the use of guided reflective writing in science classrooms to enhance critical and reflective thinking skills among students. The authors discuss various reflection methods, such as science journals, small group discussions, and guided reflection papers, and their role in providing insights into students' learning processes. Reflection activities allow teachers to assess student understanding, correct misconceptions, and facilitate deeper exploration of complex concepts.

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The Science Teacher
46
Your students successfully completed a lab ses-
sion, correctly filled in all of the worksheets,
and collected the required data. Yet, as a science
teacher, you still find yourself wondering—
what did my students actually learn? And, can they apply
that learning to what is going on in their everyday lives?
The process of critical thinking and knowledge ap-
plication requires more than rote memorization and the
ability to get answers correct on lab reports or multiple-
choice tests. Purposeful, guided reflection may be an op-
portunity to gain insight into what students are thinking
and learning in relation to science content. This article
describes how to use guided reflective writing in the sci-
ence classroom to provide a window into students’ minds.
Critical and reflective thinking
Critical thinking is used to describe the use of those cog-
nitive skills or strategies that increase the “probability of a
desirable outcome…thinking that is purposeful, reasoned,
and goal directed—the kind of thinking involved in solv-
ing problems, formulating inferences, calculating likeli-
hoods, and making decisions when the thinker is using
skills that are thoughtful and effective for the particular
context and type of thinking task” (Halpern 1996, p. 10).
Reflective thinking, on the other hand, is a part of
the critical-thinking process that refers specifically to
the processes of analyzing and making judgments about
what has happened. Dewey (1933) suggests that reflec-
tive thinking is an active, persistent, and careful consid-
eration of a belief or supposed form of knowledge, the
grounds that support that knowledge, and the further
conclusions to which that knowledge leads. Learners
are aware of and control their learning by actively par-
James McDonald and Lynn Dominguez
Developing patterns
for thinking about
learning in science
ticipating in reflective thinking—assessing what they
know, what they need to know, and how they bridge
that gap—during learning situations.
The National Science Education Standards state that
teachers of science, at all levels, must make decisions
“such as when to change the direction of a discussion,
how to engage a particular student, [and] when to let a
student pursue a particular interest” (NRC 1996, p. 33).
Teachers struggle to decide when to guide students to-
ward a specific outcome and when to allow them to set
their own goals. Because students think about what they
are learning, reflection is a way for students to set their
own goals as well as guide their own learning. Figure 1
(p. 48) shows the relevant Standards.
Creating a pattern of reflection
The decision to use reflection in the science classroom is
one that requires prior planning and thought. You must
first decide on the method of reflection to be used. For
example, while working on a project or other long-term
activity, students might be asked to record thoughts, ob-
servations, feelings, activities, and questions in a journal
that is maintained throughout the project period. Projects
that require a team approach may use a team journal to
ensure interaction within the group. Students can be as-
signed a paper to write based on their journal or engage
in class discussions to encourage critical thinking and
reflection about their project. The method or methods
selected must be based on the project outcomes defined
early in the planning process.
Over the course of a project, there will be many oppor-
tunities for reflection by both you and your students. By
breaking down the project into distinct periods, it is pos-
REFLECTIVE
The Science Teacher
46
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46 The Science Teacher

Y

our students successfully completed a lab ses- sion, correctly filled in all of the worksheets, and collected the required data. Yet, as a science teacher, you still find yourself wondering— what did my students actually learn? And, can they apply that learning to what is going on in their everyday lives? The process of critical thinking and knowledge ap- plication requires more than rote memorization and the ability to get answers correct on lab reports or multiple- choice tests. Purposeful, guided reflection may be an op- portunity to gain insight into what students are thinking and learning in relation to science content. This article describes how to use guided reflective writing in the sci- ence classroom to provide a window into students’ minds.

Critical and reflective thinking

Critical thinking is used to describe the use of those cog- nitive skills or strategies that increase the “probability of a desirable outcome…thinking that is purposeful, reasoned, and goal directed—the kind of thinking involved in solv- ing problems, formulating inferences, calculating likeli- hoods, and making decisions when the thinker is using skills that are thoughtful and effective for the particular context and type of thinking task” (Halpern 1996, p. 10). Reflective thinking, on the other hand, is a part of the critical-thinking process that refers specifically to the processes of analyzing and making judgments about what has happened. Dewey (1933) suggests that reflec- tive thinking is an active, persistent, and careful consid- eration of a belief or supposed form of knowledge, the grounds that support that knowledge, and the further conclusions to which that knowledge leads. Learners are aware of and control their learning by actively par-

J a m e s M c D o n a l d a n d L y n n D o m i n g u e z

Developing patterns

for thinking about

learning in science

ticipating in reflective thinking—assessing what they know, what they need to know, and how they bridge that gap—during learning situations. The National Science Education Standards state that teachers of science, at all levels, must make decisions “such as when to change the direction of a discussion, how to engage a particular student, [and] when to let a student pursue a particular interest” (NRC 1996, p. 33). Teachers struggle to decide when to guide students to- ward a specific outcome and when to allow them to set their own goals. Because students think about what they are learning, reflection is a way for students to set their own goals as well as guide their own learning. Figure 1 (p. 48) shows the relevant Standards.

Creating a pattern of reflection

The decision to use reflection in the science classroom is one that requires prior planning and thought. You must first decide on the method of reflection to be used. For example, while working on a project or other long-term activity, students might be asked to record thoughts, ob- servations, feelings, activities, and questions in a journal that is maintained throughout the project period. Projects that require a team approach may use a team journal to ensure interaction within the group. Students can be as- signed a paper to write based on their journal or engage in class discussions to encourage critical thinking and reflection about their project. The method or methods selected must be based on the project outcomes defined early in the planning process. Over the course of a project, there will be many oppor- tunities for reflection by both you and your students. By breaking down the project into distinct periods, it is pos-

REFLECTIV

46 The Science Teacher

March 2009 47

R e f l e c t i ve Wr i t i n g

E Writing

sible to plan and design the reflection process (Figure 2, p. 49). Some reflection activities may be very structured, while others may be guided by student questions.

Reflection assignments

Science journal reflections

Gaining insight about what students are thinking and learning during the course of a project allows the teacher to make changes in instruction, correct misconceptions, and further explore complex concepts with which students may be strug- gling. Adding a reflection element that is ongoing provides immediate feedback to both you and students. One way to gain this feedback is through a tool that may already be used in your classroom—a science journal (or notebook).

March 2009 47

March 2009 49

R e f l e c t i ve Wr i t i n g

F I G U R E 2

Opportunities for reflection activities during a science project.

Project period Assessment process and activities

The beginning Ask students to reflect in their journals about what they already know, believe, or assume related to their project concepts. What do they expect to learn? Give them a question to explore during the project.

Behind the scenes

Observe and listen to students as they work in teams. What challenges are they encountering within their groups? What do they need more information about? What would help them move their project along? Make notes and have a class discussion: Ask students to identify their challenges, questions they need answered, and information they need. Have them write their questions in their journals and find the answers.

Project completion

A guided reflection paper is a commonly used method of assess- ment, but not the only one. Ask students how they could demonstrate their knowledge or illustrate their experience. It might be through a skit, debate, song, story, picture book of concepts for young children, or a play. Students could be asked to defend a conclusion based on the data col- lected. All of these can be valuable reflective experiences.

Project facilitation and feedback

This is ongoing. If students are keeping project-long journals, review them on a regular basis. Provide nonjudgmental feedback, write responses, listen well, and ask questions. Appreciate the learning experience your students reveal.

form of credit or no credit. To objectively assess reflec- tions, the use of guided questions and structured reflec- tion assignments is required. The following questions are examples of actual guided-reflection questions used during a class in which students were conducting a science project concerning taking action on environmental issues: V What have you learned about your environmen- tal issue by “taking action”? V What impact has participation in the action team project had on your life? V In the future, if you became concerned about an environmental issue, would you be likely to take action? If so, what kinds of actions would you take?

Reflection questions should relate to the central mate- rial being taught. Guided questions should be developed based on what you determine to be the enduring under- standing students come away with.

Conclusion

Reflection helps students improve their basic communica- tions skills both orally and in written form. It assists each student in self-examining his or her learning experience and leads to the development of better critical-thinking skills. Students integrate their knowledge through the experience of reflection and begin to build a strong, basic understanding of underlying concepts and theories. The process of discussing and reflecting on learning experi- ences assists students in exchanging critical ideas and insights about the information being shared. Deliberate and guided reflection leads to expanded learning and un- derstanding. In short, reflection creates meaning. O

James McDonald ([email protected]) is an associate professor of science education in the Department of Teacher Education and Professional Development and Lynn Dominguez ([email protected]) is an assistant professor in the Recreation, Parks, and Leisure Services Department, both at Central Michigan University in Mt. Pleasant.

References

Bricker, P. 2007. Reinvigorating science journals. Science and Chil- dren 45(3): 24–29. Dewey, J. 1933. How we think: A restatement of the relation of reflective thinking to the educative process. Boston: D.C. Heath. Halpern, D.F. 1996. Thought and knowledge: An introduction to criti- cal thinking. 3rd ed. Mahwah, NJ: L. Erlbaum Associates. Klentschy, M. 2005. Science notebook essentials. Science and Children 43(3): 24–27. National Research Council (NRC). 1996. National science education standards. Washington, DC: National Academy Press. Peters, E. 2008. Assessing scientific inquiry. Science Scope 31(5): 27–32.