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Planning and Flexibility: Keys to Effective Instruction
RTP3 Presentation Rachel Hallett-Njuguna
Feb 16, 2013
Goals
• To experience and discuss standards-based, student-centered lessons
• To understand Backwards Design, 5E, and Inquiry and their importance
• To understand effective instruction which supports the Next Generation Science Standards (national science standards, currently in draft form)
• To analyze connections between NGSS and the CCSS Mathematics and Literacy standards
• To use high effect instructional strategies
Agenda
• Introductions and Team Builder • Backward Design and 5E • Standards (NGSS/NGSSS/CCSS) • Assessment (formative and summative) • Lesson (inquiry and differentiation) • Realities and Flexibility • Wrap Up
“Which Came First” Answers 1. 1965 1850 1886 2. 1899 1908 372 3. 3875 BC 1690 1859 4. 1834 1861 1884 5. 1920 1895 1683 6. 1803 1819 1684 7. 1937 1912 1848 8. 535 1889 1883 9. 1802 980 1777 10. 1965 1972 1970
Instructional Planning Backward
Design
5E
Inquiry
Identifying Goals and Objectives
Designing Units of Instruction
Creating Meaningful Experiences
Traditional Teaching Plan
Activity Benchmark Assessment
• Resulted in teachers using activities with which they were comfortable, even as benchmarks changed
• Identify an experience. Blend it with existing expectations of mastery. Create a way to evaluate success of the experience.
Backward Design (part of UBD)
• Purpose is to proceed with the “end in mind” and let benchmarks drive instruction
• Identify expectation of mastery. Create a way to evaluate mastery. Design an experience to achieve mastery.
Benchmark Assessment Lesson
5E Learning Cycle
Evaluate
Engage
Explore
Explain
Elaborate
Getting the
students interested
Giving everyone the basics
Getting everyone
on the same page
Taking it further
Checking for understanding
throughout and at end
Ex. Video clip,
demo, article
Ex. Simple Lab,
Hands-on,
Research
Ex. Notes, discussion, reflection
Ex. Open ended
lab/ research
Ex. Test, Quiz, Probe,
Performance Assessment
NGSSS vs NGSS
NGSSS • Currently, Florida science
teachers use the Next Generation Sunshine State Standards.
• They are tested with FCAT 2.0 in 5th and 8th grade, and Biology EOC exam.
• They are available on CPALMS.org
NGSS • Next Generation Science
Standards will be available for FL adoption late spring, 2013
• Assessments will be created to match the NGSS.
• They are available on nextgenscience.org
Example of NGSSS vs NGSS
NGSSS SC.8.P.8.4 Classify and compare substances on the basis of characteristic physical properties that can be demonstrated or measured; for example, density, thermal or electrical conductivity, solubility, magnetic properties, melting and boiling points, and know that these properties are independent of the amount of the sample.
NGSS MS-PS1-b. Design a solution that solves a practical problem by using characteristic chemical and physical properties of pure substances. (Clarification: Properties can include melting and boiling points, density, solubility, reactivity, reaction with oxygen, and phase at a given temperature)
Example of NGSSS vs NGSS
NGSSS SC.6.L.14.5 Identify and investigate the general functions of the major systems of the human body (digestive, respiratory, circulatory, reproductive, excretory, immune, nervous, and musculoskeletal) and describe ways these systems interact with each other to maintain homeostasis.
NGSS MS-LS1-d. Design and conduct an investigation to gather evidence to support explanations that the body is a system of interacting subsystems composed of groups of cells working to form tissues and organs specialized for particular body functions, and that scientific advances in understanding of those systems have led to improvements in nutrition, health, and medicine.
K-12 Learning Progressions
In your groups, organize your NGSS standards into grade bands (K-2, 3-5, 6-8,
and 9-12) to show the progression of a concept.
K-12 Learning Progressions
Revise as needed based on feedback, when you feel comfortable, ask for
the “correct answers.”
NGSS Alignment to CCSS
In your groups, match the NGSS standards to the CCSS mathematics and literacy standard(s) that would support them.
Formative Assessment
Determine student understanding throughout the lesson/unit in order
to inform instruction.
Formative Assessment Probes
Page Keeley
Keeley, P. (2008). Uncovering Student Ideas in Science (Vol 3). Arlington, VA: NSTA.
Tracking Student Progress: Self Assessment Scales
Marzano
Marzano, Robert J. (2010) .Formative Assessment & Standards-based Grading. Bloomington, IN: Solution Tree.
Brain-Powered Strategies: Kinesthetic Word Web
Lavonna Roth
Roth, L (2012). Brain-Powered Strategies to Engage all Learners. Huntington Beach, CA: Shell Education.
Summative Assessments
Determining student understanding at the end of a lesson/unit in order to
evaluate the effectiveness of instruction.
Keys to a good test item *adapted from FLDOE Item Review process
• Does it match the standard? • If available: Is it within the content limits? • Is it clear and free of “clang”? • If multiple choice: Does it have one correct
answer and three incorrect, but viable answers?
• Is it scientifically accurate?
Item Analysis Item # Measures
Benchmark Adheres to Content
Limits (3-8, Bio) Clear and Clang
Free Appropriate MC
Options Scientifically
Accurate
Ex
1
2
3
4
5
6
7
8
Student Misconceptions
Using assessments to inform instruction/identify gaps in learning
by identifying misconceptions.
Constructivism (the Roots of Inquiry)
• John Dewey (1859-1952) • Six Steps: sensing perplexing situations, clarifying
the problem, formulating a tentative hypothesis, testing the hypothesis, revising with rigorous tests, and acting on the solution
• Students should be actively involved, teacher should guide and facilitate.
• Problems must be related to students’ experience and within their intellectual capability.
Inquiry • Dynamics of science “asking questions, finding
ways to explore them empirically, investigating and evaluating competing alternative models, arguing” (p 254)
• “may be particularly difficult and require a
very high level of teacher knowledge and skill” (p 257)
Duschl, R.A., Schweingruber, H.A., & Shouse, A.W. (2007). Taking Science to School. Washington, DC: National Academies Press.
Inquiry • “the question may arise from benchmark lessons
that elicit curiosity, from observations of perplexing natural phenomena, from a problem situated in the real world…or from questions that scientists themselves are currently struggling to answer.” (p 258)
• “As instruction taps their entering knowledge and
skills, students must reconcile their prior knowledge and experiences with new, scientific meanings” (p 264)
Duschl, R.A., Schweingruber, H.A., & Shouse, A.W. (2007). Taking Science to School. Washington, DC: National Academies Press.
Inquiry as an Evolutionary Process
Confirmatory Structured Guided Open *Authentic Research
Topic Teacher Teacher Teacher Teacher Teacher/Stdnt
Question Teacher Teacher Teacher Teacher/Stdnt Student
Materials Teacher Teacher Teacher Student Student
Procedures/ Design Teacher Teacher Teacher/Stdnt Student Student
Results/ Analysis Teacher Teacher/Stdnt Student Student Student
Conclusions Teacher Student Student Student Student
Typical Book Lab
Inquiry as an Evolutionary Process
Confirmatory Structured Guided Open *Authentic Research
Topic Teacher Teacher Teacher Teacher Teacher/Stdnt
Question Teacher Teacher Teacher Teacher/Stdnt Student
Materials Teacher Teacher Teacher Student Student
Procedures/ Design Teacher Teacher Teacher/Stdnt Student Student
Results/ Analysis Teacher Teacher/Student Student Student Student
Conclusions Teacher Student Student Student Student
Typical Book Lab
Typical Teacher Lab
Inquiry as an Evolutionary Process
Confirmatory Structured Guided Open *Authentic Research
Topic Teacher Teacher Teacher Teacher Teacher/Stdnt
Question Teacher Teacher Teacher Teacher/Stdnt Student
Materials Teacher Teacher Teacher Student Student
Procedures/ Design Teacher Teacher Teacher/Student Student Student
Results/ Analysis Teacher Teacher/Student Student Student Student
Conclusions Teacher Student Student Student Student
Typical Book Lab
Typical Teacher Lab
Reasonable Goal
Inquiry as an Evolutionary Process
Confirmatory Structured Guided Open *Authentic Research
Topic Teacher Teacher Teacher Teacher Teacher/Stdnt
Question Teacher Teacher Teacher Teacher/Student Student
Materials Teacher Teacher Teacher Student Student
Procedures/ Design Teacher Teacher Teacher/Student Student Student
Results/ Analysis Teacher
Teacher/ Student
Student Student Student
Conclusions Teacher Student Student Student Student
Typical Book Lab
Typical Teacher Lab
Reasonable Goal
When Possible
Inquiry as an Evolutionary Process
Confirmatory Structured Guided Open *Authentic Research
Topic Teacher Teacher Teacher Teacher Teacher/ Student
Question Teacher Teacher Teacher Teacher/Student Student
Materials Teacher Teacher Teacher Student Student
Procedures/ Design Teacher Teacher
Teacher/ Student
Student Student
Results/ Analysis Teacher
Teacher/ Student
Student Student Student
Conclusions Teacher Student Student Student Student
Typical Book Lab
Typical Teacher Lab
Reasonable Goal
When Possible
Ideal but Unrealistic
Physical and Chemical Properties Unit • Engage: You are cleaning out the supply closet
and stumble across an unlabeled jar of white powder. In consideration of the department’s tight budget, you want to identify the powder rather than throw it out. You gather 5 similar looking white powders that are most likely to be the same substance.
Physical and Chemical Properties Unit
• Explore: Determine the identity of an unknown powder by comparing its physical and chemical properties to those of several known powders.
• Explain: Identify the properties as either physical or chemical. Identify which properties are “characteristic” and the significance of characteristic properties.
Group Roles • Documentation (Member 1 and 2): responsibility is
to ensure that the thoughts and data from the group are accurately recorded. One person should complete up to Data, second person should complete Results and Conclusion.
• Materials (Member 3): responsibility is to ensure
that materials have been distributed accurately to the group, that they are used properly during the experiment, and that they are returned to the bins upon completion of the experiment.
Group Roles • Experimentation (Member 4 and 5): responsibility is
to conduct the experiment following the specified procedures. (Testing of materials should be split evenly if possible.)
• Confirmation (Member 6): responsibility is to ensure
that other roles are being served properly, that safety rules are being followed, that any questions from the group are asked of the teacher, and that all voices from the group are heard during the discussion.
Physical and Chemical Properties Unit
• Explore: Determine the identity of an unknown powder by comparing its physical and chemical properties to those of several known powders.
Mystery Powder Lab Discussion • Strategy: Group members were assigned roles, these
would change for each lab so that one student is not always serving the same role. (Can be purposefully assigned depending on the student and the lab requirements.)
• Strategy: Groups were given different versions of the same lab which involved different levels of cognitive complexity for the design and write-up, while ensuring that all students received the same rigorous content. (Can be assigned in conjunction with the Role assignment.)
• Strategy: Materials provided were all the same so that groups were unaware of the differences in the expectations for the lab write-up.
Scenarios
On each card is a scenario related to science instruction. Discuss as a group how you would
prepare for/respond to this issue. *Mentors, please share your thoughts last*
Scenario #1
You have prepared an Engage for a unit that involves a fascinating clip from the Discovery Channel. The day you
have planned to use it, you are told that the Internet will be down all day so you can no access the clip you chose.
Knowing how important it is to Engage your students before starting a new unit, what do you do?
Scenario #2
You have prepared a gripping lesson on Evolution for your students. The night before the lesson, you receive a
pointed email from a parent who says that they refuse to allow their son/daughter to be taught Evolution as it is
against their beliefs. Knowing that Evolution is part of your required benchmarks, what do you do?
Scenario #3
You have a unit coming up and although you’d like to do a hands-on inquiry lab with your
students, the materials and time required are just not feasible. Knowing that students build knowledge from experiences, what do you do?