Teaching Elementary School Science

ED 4010

 

Fall 2008

2101 Sangren Hall

 

TR 9:30 am Section #40092

TR 11:00 am Section #40094

 

Instructor:   Dr. Paul Vellom

Office: 2441 Sangren Hall

Phone: 387-3511

E-mail: paul.vellom@wmich.edu

Web page: http://homepages.wmich.edu/~pvellom

 

 

Office Hours: T 3:30 – 5:00pm, and by appointment (email is best here).

Mailbox located in 2444 Sangren Hall.

Department Office: 2112 Sangren (across from 2103 classroom),
Office Associate: Mrs. Marijo Elwell.

 

REQUIRED TEXT AND MATERIALS:

1.     National Research Council (2000) Inquiry and the National Science Education Standards Washington, D.C.: National Academy Press. ISBN: 0-309-06476-7 Available at www.nap.edu

2.     Vellom, R. P. (2008).  Teaching Elementary Science: Designs for Inquiry and Interaction.  Plymouth, MI: Hayden-McNeil Publishing.  ISBN: 978-073802600-8 Available at WMU bookstore.

3.     National Research Council (2001) Classroom Assessment and the National Science Education Standards.  Washington, D.C.: National Academy Press. ISBN: 0-309-06998-X  Available at www.nap.edu

4.     Kwan, T., Texley, J., (2003) Exploring Safely: A Guide for Elementary School Teachers Arlington, VA, NSTA Press.  ISBN: 0-87355-200-8  Available at www.nsta.org

 

RECOMMENDED MATERIALS:

1.     Websites & books with collections of age-appropriate science activities

 

COURSE DESCRIPTION:

This course is designed to introduce students to an inquiry-based sampling of the elementary school science program.  Emphasis will be given to the exploration of science concepts, techniques, philosophies, and teaching strategies that form current “best practices” being used in the elementary school science classroom.

The course will introduce preservice teachers to effective methods for helping children to understand fundamental science concepts while they simultaneously develop an interest in and an appreciation for science.  A constructivist approach to learning will form the foundation for all aspects of this course.

The course includes in-class inquiry activities, development of a grade-specific unit plan aligned with the Michigan Grade Level Content Expectations, microteaching episodes, online analysis of teaching episodes, and development of an electronic teaching portfolio.

 

 

DIVERSITY STATEMENT:

The College of Education’s commitment to a strong and sustained commitment to the diverse and unique nature of all learners will be reflected in this course by the actions of instructor and students. This commitment means I hold high expectations for every student in terms of her/his ability to learn and to apply learning in meaningful ways, and I expect students to embrace these expectations also.

In class and on group projects, every student should strive to learn from their own experiences and the experiences of others, particularly seeking to understand alternative points of view, approaches, and cultural backgrounds.  This kind of border-crossing, while uncomfortable and difficult, supports the fullest meaning of commitment to diversity.

 


COURSE OBJECTIVES:

 

Upon completion of this course, the successful teacher candidate will be able to:

 

1.     Utilize the Michigan Science Benchmarks and other resources to plan effective science instruction to meet the needs of a diverse student population.

2.     Design inquiry-based science units which engage students in higher-level cognitive activity while creating artifacts of their evolving understandings of fundamental science concepts, processes, and facts.

3.     Create a classroom in which inquiry underlies all activity, including a constructivist philosophy of teaching that values the development of ideas and understandings of complex systems, relationships, and concepts.

4.     Understand the value of and need for developing scientific literacy in all people, and effectively represent the scientific enterprise as varied sets of attitudes, practices, and ways of seeking knowledge about the natural and created world.

5.     Seek out, evaluate, appropriately modify, and use a variety of resources for science teaching, including manipulatives and web-based, text-based, and visual media.

6.     Identify genuine safety hazards and issues that are inherent in science instruction and plan and/or modify instruction to ensure the personal safety of all.

7.     Plan instruction to incorporate and manage new technologies across a variety of social arrangements including individual, small-group, and whole-class work.

 

During this course, each teacher candidate should strive to:

·         Learn how to design thematic instruction, and how to effectively integrate science with other curricular areas.

·         Design instructional events which facilitate a variety of learning styles and individual differences.

·         Learn how to set goals and objectives which are appropriate for a variety of age groups and learning styles.

·         earn how to use a variety of strategies for assessing student knowledge, skill development, and attitudes toward science.

·         learn to use discrepant events as a means of motivating children to become engaged in thought-provoking science activities.

·         learn how to use a wide variety of strategies and activities that facilitate the development of science concepts in children (constructivism).

·         develop a wide variety of strategies for teaching scientific attitudes and scientific processes (thinking skills).

·         improve your questioning skills in ways which allow you to motivate students via thought-provoking questions.

·         learn strategies for organizing and managing cooperative learning groups which are engaged in thought-provoking hands-on science activities.

·         learn how to incorporate and manage new technologies in your discovery-based classroom.

·         learn techniques of self-monitoring that allow you to improve your questioning and listening skills.

·         develop an appreciation for science, and a positive attitude regarding science instruction.

·         learn about professional science and science-teaching organizations that promote and support continual improvement in the teaching of science.

·         realize that learning how to become a better teacher of science is a continuous and life-long process.

 


EVALUATION AND GRADING:

 

Major Expectations

1.     Each of us will be creating knowledge as members of a learning community.  It will be impossible for you to meet course objectives if you are often absent or late and do not participate in class sessions fully.  Therefore, missing class sessions without making up work or frequent tardiness/leaving early will result in a lower grade for you.  In keeping with University guidelines, documentation of excused absence will be required before makeup work can be accepted.  [Attendance & participation is 50 pts per day; approximately 1 min = 1 pt for tardiness]

2.     In the event you are absent, you are to contact me by phone (269)387-3511 or email paul.vellom@wmich.edu as soon as you can.  You are responsible for:

·         1) contacting others in the class to find out what you missed and 2) doing assigned work, including supporting your group members’ efforts to complete group assignments

·         providing documentation for your absence (not doing so means it will count as unexcused, and therefore making up points will not be possible).

·         completing work and submitting it as soon as practical after the absence, and communicating effectively with your instructor about this.

  1. You are expected to come to each class session ready to learn.  This means you should complete all readings and assignments before the start of class at which they are due, participate in classroom and on-line discussions, and share your ideas in a variety of ways during class.  
  2. You should bring your text (Teaching Elementary Science: Designs for Inquiry and Interaction) and your works-in-progress to each class meeting.
  3. You are expected to develop an inquiry-based science unit plan (submitted in two forms: one paper [with no identifiers] and one electronic file format), and to provide this to your instructor for evaluation and for sharing with your classmates.  You are also expected to actively participate in group work, critique, and feedback sessions related to developing the unit plans.
  4. You are expected to construct and present two microteaching episodes (called science knowledge-builders [SKB1 and SKB2]) to the class, to produce a revised paper copy of your SKB lesson plan, and to participate in reflection and analysis of your teaching performances. You are expected to participate fully in the knowledge-builder presentations of your fellow classmates.
  5. You are expected to engage in analysis of science teaching episodes using the online LessonLab web portal.  This activity will help broaden your view of good science teaching, and sharpen your understanding of productive classroom inquiry.  http://ocean.lessonlab.com
  6. You are expected to develop a well-organized draft science teaching portfolio on iWebfolio.  This process includes uploading various documents to My Files during the term and attaching them to specific standards in your portfolio, as well as thoughtfully reflecting and writing descriptive captions.  This will serve as an initial draft of one section of your professional teaching portfolio.  http://www.iwebfolio.com
  7. You are expected to create and maintain a well-organized folio/notebook of classroom notes, artifacts, and resources. This will be an important resource in end-of-course activities.

 

 

Grade Determination

 

Grading will be based on accumulated points in a number of categories of work as indicated below (a weighted category system).  Approximate percentages for each category of activity are listed below.  Adjustments may occur due to adaptations in schedule and instructional path as determined by the instructor.  Course participants are encouraged to use the Grade Record Sheet supplied by the instructor so that they can easily track progress in the course.  The weighted category method ensures that each category approximates the percentage noted below in column 2.

Course participants are urged to address questions regarding work quality or grades with the instructor during office hours or by appointment.

 

ACTIVITY

Approx %

Points detail

1. Attendance, Active Participation, In-class Work, Written Homework (includes some unit plan materials)

40

50 pts/day
25-50 pts/assignment

2. Written Reflections & Online Discussions Readings & Class Topics

6

25 pts/reflection

3. Online Video Analysis using LessonLab

3

25 pts/discussion

4. Microteaching (Knowledge Builder) Plans, Presentations, Critique

16

25 pts/ea. lesson plan
50 pts/ea. teaching
50 pts/ea. reflection

5. Unit Plan (electronic and paper versions) Parts I and II

20

50 pts/e-plan
100 pts/ea Part on paper

6. Teaching Portfolio (electronic format: iWebFolio) & Notebook

5

10 pts/artifact
20 pts/all captions

5. Final Reflection, Final Experience

10

50 pts/ea. part

 

NOTE: You should expect that checking homework and assignments will occur both during class meetings and between them.  You are responsible for meeting deadlines, and should communicate effectively with Dr. Vellom when you cannot do so.  If you cannot meet a deadline you must speak with the instructor about your need to turn it in late. Failure to do so will result in a maximum grade of 50% of the available points on that assignment.  You are urged to periodically review your progress in the course against other commitments in order to plan effectively and maintain your work flow.  Please address scheduling and deadline issues proactively.

On some assignments, I will ask to see a product in order to give credit for completion (rather than collecting and grading intensively).  On these occasions, this means that I am less likely to catch misunder-standings in the content of the work.  For this reason, we will use a variety of peer-review approaches to find issues that beg clarification. However, YOU are also responsible for identifying areas in which you need additional instruction, clarification, or support.  You are strongly urged to bring questions to the instructor so that your needs can be met.  Generally, a short office visit will provide the support you need.

 

Dr. V’s Grading Scale (differs from University scale)

 

Grade

Significance

Dr. V’s %

Honor Points

A

Outstanding, Exceptional

95 -100

4.0

BA

 

89 - 94.99

3.5

B

Very Good, High Pass

83 - 88.99

3.0

CB

 

77 - 82.99

2.5

C

Satisfactory, Acceptable

71 - 76.99

2.0

DC

 

65 - 70.99

1.5

D

Poor

60 - 64.99

1.0

E

Failing

Below 60

0.0

Final grades will be determined by the instructor’s best professional judgment, based on information available at the time grades are due.


 
Important Note: You are responsible for making yourself aware of and understanding the policies and procedures in the Undergraduate (pp. 274-276) [Graduate (pp. 26-28)] Catalog that pertain to Academic Integrity. These policies include cheating, fabrication, falsification and forgery, multiple submission, plagiarism, complicity and computer misuse. If there is reason to believe you have been involved in academic dishonesty, you will be referred to the Office of Student Conduct. You will be given the opportunity to review the charge(s). If you believe you are not responsible, you will have the opportunity for a hearing. 
 
***You should consult with me if you are uncertain about an issue of academic honesty prior to the submission of an assignment or test.***

 

 

 

 

Some Notes about Access to the Science Classroom and Materials

 

 

In planning for your microteaching episodes and in working on your unit plan, you may find that you need access to the science classroom (2101 Sangren) and the materials stored in the back room.

 

A.    You may access the room and materials during class. 

B.    You may access the back room during another instructor’s class, unless that instructor objects.  In all cases, consider the teaching environment to have priority over your needs.

C.    You may access the room and materials when it is locked by one of two methods:   

1.     Contact me via email to arrange a time for me to open the room for you.

2.     Walk in to see Mrs. Marijo Elwell in the TLES office (2112 Sangren), let her know that you are in my class, and request (kindly) that she open the doors for you.

 

PLEASE keep the hallway door closed while you are in the room, and close both doors and turn off the lights as you leave.  As a courtesy, notify Mrs. Elwell when you leave.

 


APPENDIX
National Standards for Science Teacher Education

Source: National Science Teachers Association

 

Content: Content refers to concepts and principles understood through science; concepts and relationships unifying science domains; processes of investigation in a science discipline; and applications of mathematics in science research.

1.a. Know and understand the major concepts and principles of the teaching discipline(s) as defined by state and national standards of the science education community.

1.b. Know and understand major concepts and principles unifying science disciplines. (See National Science Education Standard - Unifying Concepts).

1.c. Design, conduct and report investigations within a science discipline.

1.d. Apply mathematics in problem-solving and scientific investigation.

 

Nature of Science: Nature of science refers to characteristics distinguishing science from other ways of knowing; characteristics distinguishing basic science, applied science, and technology; processes and conventions of science as a professional activity; and standards defining acceptable evidence and scientific explanation.

2.a. Know and understand the philosophical nature of science and the conventions of scientific explanation.

2.b. Engage K-12 students effectively in studies of the nature of science and conventions of scientific explanation.

 

Inquiry: Inquiry refers to questioning and formulating solvable problems; reflecting on, and constructing, knowledge from data; collaborating and exchanging information while seeking solutions; and developing concepts and relationships from empirical experience

3.a. Know and understand scientific inquiry and its relationship to the development of scientific knowledge.

3.b. Engage K-12 students effectively in scientific inquiry appropriate for their grade level and abilities.

 

Context of Science: The Context of Science refers to relationships among systems of human endeavor including science and technology; relationships among scientific, technological, personal, social and cultural values; and the relevance and importance of science to the personal lives of students.

4.a. Know and understand the relationship of science to other human values and endeavors.

4.b. Engage K-12 students effectively in the study of the relationship of science to other human values and endeavors.

4.c. Relate science to the personal lives, needs and interests of K-12 students.

 

Skills of Teaching: Skills of Teaching refers to science teaching actions, strategies and methodologies; interactions with students that promote learning and achievement; effective organization of classroom experiences; use of advanced technology to extend and enhance learning; and the use of prior conceptions and student interests to promote new learning.

5.a. Use diverse and effective actions, strategies and methodologies to teach science.

5.b. Interact effectively with K-12 students to promote learning and demonstrate student achievement.

5.c. Organize and manage science activities effectively in different student groupings.

5.d. Use advanced technology to teach K-12 students science.

5.e. Use prior conceptions and K-12 student interests to promote learning.

 

Curriculum: Science curriculum refers to an extended framework of goals, plans, materials, and resources for instruction and the instructional context, both in and out of school, within which pedagogy is embedded

6.a. Develop coherent, meaningful goals, plans, and materials and find resources.

6.b. Relate plans and resources to professionally-developed state and national standards, including the National Science Education Standards.

6.c. Plan and develop science curriculum addressing the needs, interests and abilities of all preK-12 students.

 

Social Context: The social context of science teaching refers to the social and community support network within which science teaching and learning occur; relationship of science teaching and learning to the needs and values of the community; and involvement of people and institutions from the community in the teaching of science.

7.a. Know and understand the values and needs of the community and their effect on the teaching and learning of science.

7.b. Use community human and institutional resources to advance the learning of science in the classroom and field.

 

Assessment: Assessment refers to the alignment of goals, instruction and outcomes; measurement and evaluation of student learning in a variety of dimensions and the use of outcome data to guide and change instruction.

8.a. Align science goals, instruction and outcomes.

8.b. Know and use a variety of contemporary science assessment strategies to determine preK-12 student needs and levels of learning and  development.

8.c. Use assessment appropriately to determine, guide and change science instruction.

 

Environment of Learning: Learning environments refers to the physical spaces within which learning of science occurs; psychological and social environment of the student engaged in learning science; treatment and ethical use of living organisms; and safety in all areas related to science instruction.

9.a. Create and maintain a psychologically and socially safe and supportive learning environment.

9.b. Manage the activities and materials of science safely in storage areas, labs and field.

9.c. Keep and use living organisms as in the classroom in a safe, ethical and appropriate manner.

 

Professional Practice: Professional practice refers to knowledge of, and participation in, the activities of the professional community; ethical behavior consistent with the best interests of students and the community; reflection on professional practices and continuous efforts to ensure the highest quality of science instruction; and willingness to work with students and new colleagues as they enter the profession.

10.a. Know and participate in professional organizations and activities of the science education community beyond the classroom.

10.b. Behave ethically and in best interests of preK-12 students and the community.

10.c. Engage in reflective practices and make continuous efforts to improve in practice.

10.d. Work willingly with peers, supervisors and others in a professional manner.