Let’s get into an argument Citizenship Mini-Unit Teacher Professional Development Power point Presentation to introduce Citizenship Teaching Experiments.

Slides:



Advertisements
Similar presentations
Performance Assessment
Advertisements

K-6 Science and Technology Consistent teaching – Assessing K-6 Science and Technology © 2006 Curriculum K-12 Directorate, NSW Department of Education and.
Action Research Not traditional educational research often research tests theory not practical Teacher research in classrooms and/or schools/districts.
Measured Progress ©2012 New Alaska State Standards for Math: Connecting Content with Classroom Practices ASDN Webinar Series Spring 2013 Session One February.
© Cambridge International Examinations 2013 Component/Paper 1.
An inquiry learning progression for carbon-transforming processes Dr. Jenny Dauer Michigan State University Department Teacher Education.
Integrating Technology-enhanced Feedback into a Middle School Science Curriculum to Improve Conceptual Teaching and Learning This material is based on.
Presenters: Madelon Cheatham Stephen Brodie Norms….  Please share your thoughts!  Snacks/coffee  Morning and afternoon break  Lunch on your own 
Continuous Professional Development in Mathematics
Using CTS to Develop Formative Assessment Probes
Session 6: Writing from Sources Audience: 6-12 ELA & Content Area Teachers.
Week 2 Standards and evidence Building your professional persona and portfolio.
Mathematics and Science Partnership (MSP) Colleton County Middle School and Clemson University Department of Mathematical Sciences PDI 2 Professional Development.
Designing Science Units Chapter 7 Designing Science Units and Courses of Study
Scientific Inquiry: Learning Science by Doing Science
Teaching Experiments and a Carbon Cycle Learning Progression 2009 AERA Presentation Written by: Lindsey Mohan and Andy Anderson (Michigan State University)
Lecture # 6 SCIENCE 1 ASSOCIATE DEGREE IN EDUCATION TEACHING OF SCIENCE AT ELEMENTARY LEVEL.
A framework to move from common core to classroom practice Puget Sound ESD December
Maryland College and Career Readiness Conference Summer 2014.
Endangered Species Conservation as a Context for Understanding Student Thinking about Genetic Diversity 2011 NARST Presentation Written by: Shawna McMahon.
DeAnn Huinker, UW-Milwaukee MMP Principal Investigator 26 August 2008 This material is based upon work supported by the National Science Foundation under.
InterActions Overview This Presentation will touch on the following topics.  Brief Overview  Major Content Themes  Pedagogical Principles  Scaffolding.
Learning Progressions Immersion Activity Power point presented to teachers during professional development to help teachers learn about learning progressions.
GETTING DIRTY WITH PLANTS AND SOIL. OBJECTIVES As students actively participate and are involved with scientific processes, they will be excited to learn.
Writing an LDC Module Step-by-Step Guidance 10/16/20151.
Plates and Gates ELF Activity: Geosphere 2A As.
© TNTP 2014 March Principal Training. / 2 Do Now Reflect on your progress from the last session: How successful were you in supporting a teacher to identify.
ENGAGING STUDENTS FOSTERING ACHIEVEMENT CULTIVATING 21st CENTURY GLOBAL SKILLS Designing Engaging Units for 21 st Century Learners Consider the 21st Century.
Carbon Dioxide Process Tool Power point Presentation to accompany Carbon Teaching Experiment Written by: Jonathon Schramm A, Eric Keeling B, Dijanna Figueroa.
Homework & Homework Application
HOW TO TEACH WRITING IN A NON-ELA SETTING District Learning Day 10:20-11:30 August 5, 2015.
Addressing W1 and W2 with Science Notebooking StaceyAnne Hartberger James Martin Middle School STEM Institute :30-11:30 Contact info:
1 Support Provider Workshop # East Bay BTSA Induction Consortium.
Using Science In Decision Making Type of Material (Student/PD/Assessment/etc.) Written by: Beth Covitt (University of Montana) and Cornelia Harris (Cary.
Professional Learning Resources Download presentations and resources from today’s sessions!  Go to BISD homepage  Departments  Professional Learning.
March 7,  School  Courses taught  Interest in this topic  A time when you defended a claim with evidence and reasoning.
Depth of Knowledge. Let’s review... 1.Students perform simple procedures like copying, calculating, and remembering. They either know an answer or they.
Maryland College and Career Readiness Conference Summer 2015.
Karen Viskupic Department of Geosciences Boise State University Writing Learning Outcomes November 2014.
Connections between students’ explanations and interpretations of arguments from evidence Allison L. Freed 1, Jenny M. Dauer 1,2, Jennifer H. Doherty 1,
National Science Education Standards. Outline what students need to know, understand, and be able to do to be scientifically literate at different grade.
A K-12 LEARNING PROGRESSION TO SUPPORT UNDERSTANDING OF WATER IN THE ENVIRONMENT Beth Covitt & Kristin Gunckel Geological Society of America, North-Central.
Assessment and Rubrics Kate McNeill Boston College Maria Gonzalez-Howard Boston College.
Investigating Mass Gain and Mass Loss Power point Power point to accompany Carbon Teaching Experiment Written by: Jonathon Schramm A, Eric Keeling B, Dijanna.
PowerPoint & Evaluating Resources PowerPoint & Evaluating Resources Mike Spindler & Emma Purnell.
Discussion of Experimental Set-up Power point to accompany lesson 2 of the biodiversity teaching experiment Written by: Jennifer Doherty, Cornelia Harris,
Center for Assessment and Improvement of Learning
PARENTS’ INFORMATION SESSION -YEAR 6 SATS 2017
Example slides for Middle & High School to explain to NGSS to parents
Let’s Think About… What happened to the energy from the sun when it hits the earth? Record you thoughts in your note page. Turn to your elbow partner and.
UbD: Goals for the Session
Designing a Three-Dimensional Curriculum for Climate Change Education Informed by Learning Progression Research Hannah K. Miller, Johnson State College.
Defining an Occasion of Sensemaking
Computational Reasoning in High School Science and Math
Using Literacy to “Unpack” Content and Build Prior Knowledge
Tracing Matter Process Tools
Using Friendly Controversy
Cellular Respiration Power point
PARENTS’ INFORMATION SESSION -YEAR 6 SATS 2017
Office of Education Improvement and Innovation
Written by: Jennifer Doherty, Cornelia Harris, Laurel Hartley
(Michigan State University)
Literacy Content Specialist, CDE
Plants Unit Activity 3.3 Observing Plants in the Light and Dark
Long Term Ecological Research Math Science Partnership
Powers of 10 Poster with animation
Year 6 Information Evening
Supporting Material for the Biodiversity Teaching Experiment
Vernier Probe Difficulties Power point (Sample Data)
Decomposers in the stream
Presentation transcript:

Let’s get into an argument Citizenship Mini-Unit Teacher Professional Development Power point Presentation to introduce Citizenship Teaching Experiments Written by: Beth Covitt (University of Montana) and Cornelia Harris (Cary Institute of Ecosystem Studies) Culturally relevant ecology, learning progressions and environmental literacy Long Term Ecological Research Math Science Partnership April 2012 Disclaimer: This research is supported by a grant from the National Science Foundation: Targeted Partnership: Culturally relevant ecology, learning progressions and environmental literacy (NSF ). Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.

“Let’s Get Into An Argument” Citizenship Mini-Unit Using Science In Decision-Making

Consider Two Sets of Information Source 1 Source 2 Data from the World Conservation Union Polar Bear Specialist Group (2010) about 19 separate populations of polar bears.

What is a Scientific Argument and how is it different than arguments people have in everyday life? Characteristics of Scientific Arguments Characteristics of Everyday Arguments

Using Science In Decision-Making Students are introduced to… – Scientific arguments (claims, evidence, reasoning) – Scientific questions – Socioscientific issues – Ways scientists evaluate arguments Mini Unit Overview

Using Science In Decision-Making Contexts: Template format provides ability to adapt to any socioscientific issue (e.g., place-based issue) Grades: Middle to High Time: 3 to 4 class sessions – (with longer or repeat options) Materials needed: Teacher Guide, Student Handouts, Video Projection, Articles for Students – (find materials on MSU Env Lit Website) Mini Unit Overview

Using Science In Decision-Making Understand that we use scientific arguments to answer scientific questions Be able to distinguish between questions that can be addressed by science & those that can’t Understand that a scientific argument includes… – A claim – Evidence – Reasoning Learning Objectives

Using Science In Decision-Making Understand that in science we use specific criteria (e.g., replication, peer review, etc.) to evaluate scientific arguments Be able to evaluate credibility of sources through relying on at least 1 scientific criterion Understand science is just 1 lens for considering socioscientific issues Learning Objectives (cont.)

Using Science In Decision-Making Mini Unit Overview

Using Science In Decision-Making Students introduced to brief definitions of… – Scientific questions (and what it is not!) – Scientific arguments (CER) – Socioscientific issue Students watch short video and answer questions to consider terms in context: Activity One

Before we jump into the video… Let’s talk about your experience teaching about claims, evidence, and reasoning

Let’s give an example ClaimEvidenceReasoning Egg will swell when placed in pure water. Mass before and after, calc. Final mass was larger. Hypotonic solution and osmosis.

Another example? ClaimEvidenceReasoning

Day and Night ClaimEvidenceReasoning Day and night are caused by a spinning Earth. A photo taken of the Pole Star with a long exposure shows all the stars going round the pole star. Movement of Foucault’s Pendulum is another piece of evidence. Either all the stars are rotating around the Pole Star (and Earth is not spinning) or the ground on which the camera sits is turning.

Current is Conserved ClaimEvidenceReasoning Current is conserved in a simple circuit. When you measure the current in a simple circuit before and after a bulb with an ammeter, both readings are identical. If current was “used up” in the circuit, then the ammeter would read a lower current in the wire after the bulb compared with before the bulb.

Plants  CO 2 in O 2 Out ClaimEvidenceReasoning Plants take in carbon dioxide and give out oxygen during photosynthesis. Oxygen: If you collect gas in a sealed jar of elodea (a plant) illuminated by light, the gas will relight a glowing wood splint. More recently oxygen and carbon dioxide probes have become available for conducting experiments with plants in the classroom Pure oxygen is more flammable than air, so there is a higher concentration of oxygen in the sealed jar with the plant that has been illuminated.

Now You Try --- Pangaea Claim: About 250 million years ago, land on Earth consisted of one supercontinent. Use information in the graphic on the next slide to describe some evidence and reasoning for the claim.

Describe Evidence & Reasoning Colored dots show where fossils of land mammals and plants that lived 250 million years ago have been found.

Why Teach With Argumentation? Was it easy or difficult to think of the evidence and reasoning for these claims? Do you think high school students would be able to think of evidence and reasoning for these claims? What do answers to the questions above show about: – How the public understands science? – The way in which science is commonly taught in schools? What might be the value of using a more evidence- based approach?

NOW TO THE VIDEO! Hygiene Hypothesis

What was her claim? What was her evidence? What was her reasoning? What scientific Argument did Dr. von Mutius (and the narrator) make?

What was her claim? If you live in an environment with fewer microbes, this will lead to higher asthma and allergy rates. Cleaner environment makes students allergic. What was her evidence? Samples and survey data of environment, more livestock interaction correlated with lower incidence of allergies What was her reasoning? What scientific Argument did Dr. von Mutius (and the narrator) make?

What socioscientific issue or issues is this scientific argument relevant to? If you wanted to decide what ought to be done about the socioscientific issue you’ve identified, what other scientific questions in addition to the one in the video would you want to consider? What non-scientific questions would you want to consider?

What socioscientific issue or issues is this scientific argument relevant to? If you wanted to decide what ought to be done about the socioscientific issue you’ve identified, what other scientific questions in addition to the one in the video would you want to consider? – Is there a corr. Between hand santizer and illness? – What about in a different environment? Different animals? Different densities of people? – Are children in daycare setting able to better fight off germs? Have less asthma/allergies? – What are the incidence rates of these things in different places? – What are the rates of infectious disease in these places? What non-scientific questions would you want to consider? – Is it related to the number of doctors we have? Is this a matter of over diagnosis? – Should we spend money on allergy shots?

Using Science In Decision-Making Students read articles (jigsaw possible) providing multiple arguments re a socioscientific issue Students identify CER for each source Students develop and apply own criteria for evaluating strength of arguments Activity Two

Using Science In Decision-Making Socioscientific Issues for today Should we buy artificial or real Christmas trees? Are polar bears an endangered species?

What’s the Argument Here?

What Makes for a Strong or Weak Scientific Argument? How can you tell whether a scientific argument is strong or weak? Discuss with you group and list criteria (factors) below that you can think of that you would use to judge the strength or weakness of a scientific argument. Criteria (Factors) for Evaluating the How Strong or Weak a Scientific Argument Is:

Criterion (Factor) Strength (S), Neutral (N), or Weakness (W) Explain why the scientific argument is strong or weak for each criterion you list. Evaluating Arguments in Articles

What’s Your Opinion What is your opinion about what should be done about this issue and why? Is there anything that you could do to impact this issue? What are some things you could do and how might they impact the issue?

Using Science In Decision-Making Students introduced to criteria scientists use Focus is on intro/awareness, not depth Students compare own and scientific criteria Students revisit evaluations of sources using scientific criteria Activity Three

Using Science In Decision-Making Some Criteria Scientists Use Scientific evidence Sample size Appropriate measures Rigorous data collection Replication Underlying scientific concept Consensus Peer review Bias Activity Three

Using Science In Decision-Making Activity Four What are some socioscientific issues that you know about and/or that are important to you? For one issue you’ve identified, what are some scientific questions that investigating could help people understand the issue better?

Using Science In Decision-Making Activity Four Can answers to scientific questions provide us with all the information we need to make a good decision about what to do about a socioscientific issue? Why or why not? If not, what other information would be needed?

Using Science In Decision-Making Activity Four Is there generally a right and wrong answer to what should be done about a socioscientific issue? Why or why not? If two people had the same exact information available to them about a socioscientific issue, could they make different decisions with both being considered informed decisions? Why or why not?

Using Science In Decision-Making Activity Four Can all scientific questions be answered with 100% certainty? If not, can investigating these questions still help us to understand issues better, or is science only useful if it provides definite answers? Has this set of activities changed the way you’ll consider scientific arguments in the future? If yes, how will what you do be different from what you’ve done before?

Implementing this Unit Materials are available on the MSU Environmental Literacy website including: – Teacher guide – Student Handouts – Topic packages with articles and teacher notes for each topic – Teacher feedback form We’d appreciate your help with data collection --- collecting completed student handouts to help us explore how students evaluate scientific arguments and evidence.

Implementing this Unit Consider: – Using the unit (starting with Activity 2) several additional times throughout school year with different topics to help students develop competencies with evaluating second-hand scientific arguments and evidence

Implementing this Unit Your thoughts… – Do you do anything similar to this already? – Does this activity fit with your curriculum? – How would you implement this with your students? – What might be challenging? – Ideas to share with each other/us about using the unit? – What additional support would you want/need from us to use this unit?