Can You Keep Ice From Melting?

Similar documents
Planting Seeds, Part 1: Can You Design a Fair Test?

Unit 1: Scientific Investigation-Asking Questions

(I couldn t find a Smartie Book) NEW Grade 5/6 Mathematics: (Number, Statistics and Probability) Title Smartie Mathematics

What is PDE? Research Report. Paul Nichols

Case study Norway case 1

Pentomino Problem. Use the 3 pentominos that are provided to make as many different shapes with 12 sides or less. Use the following 3 shapes:

Full text of O L O W Science As Inquiry conference. Science as Inquiry

Unit: Human Impact Differentiated (Tiered) Task How Does Human Activity Impact Soil Erosion?

Me on the Map. Standards: Objectives: Learning Activities:

Calculators in a Middle School Mathematics Classroom: Helpful or Harmful?

A Study of the Effectiveness of Using PER-Based Reforms in a Summer Setting

MADERA SCIENCE FAIR 2013 Grades 4 th 6 th Project due date: Tuesday, April 9, 8:15 am Parent Night: Tuesday, April 16, 6:00 8:00 pm

Ohio s Learning Standards-Clear Learning Targets

Objective: Model division as the unknown factor in multiplication using arrays and tape diagrams. (8 minutes) (3 minutes)

Average Number of Letters

Creating Coherent Inquiry Projects to Support Student Cognition and Collaboration in Physics

FOR TEACHERS ONLY RATING GUIDE BOOKLET 1 OBJECTIVE AND CONSTRUCTED RESPONSE JUNE 1 2, 2005

2 nd grade Task 5 Half and Half

TEKS Resource System. Effective Planning from the IFD & Assessment. Presented by: Kristin Arterbury, ESC Region 12

Kindergarten SAMPLE MATERIAL INSIDE

Teaching a Discussion Section

Rover Races Grades: 3-5 Prep Time: ~45 Minutes Lesson Time: ~105 minutes

Statistical Analysis of Climate Change, Renewable Energies, and Sustainability An Independent Investigation for Introduction to Statistics

Grade 2: Using a Number Line to Order and Compare Numbers Place Value Horizontal Content Strand

Physical Features of Humans

Teaching a Laboratory Section

What can I learn from worms?

South Carolina College- and Career-Ready Standards for Mathematics. Standards Unpacking Documents Grade 5

SMARTboard: The SMART Way To Engage Students

Friction Stops Motion

Mathematics Success Grade 7

Formative assessment: Minute-by-minute and day-by-day

Function Tables With The Magic Function Machine

English Language Arts Scoring Guide for Sample Test 2005

Lab 1 - The Scientific Method

Evaluating Statements About Probability

Teaching Literacy Through Videos

2.B.4 Balancing Crane. The Engineering Design Process in the classroom. Summary

SURVIVING ON MARS WITH GEOGEBRA

STRETCHING AND CHALLENGING LEARNERS

INTRODUCTION TO OCEANOGRAPHY GEOL TUESDAY/FRIDAY, 14:10-15:25 HUNTER NORTH 1021

DIDACTIC MODEL BRIDGING A CONCEPT WITH PHENOMENA

White Paper. The Art of Learning

Grade 6: Module 2A: Unit 2: Lesson 8 Mid-Unit 3 Assessment: Analyzing Structure and Theme in Stanza 4 of If

Lesson 1 Taking chances with the Sun

Kindergarten Lessons for Unit 7: On The Move Me on the Map By Joan Sweeney

End-of-Module Assessment Task K 2

A Pumpkin Grows. Written by Linda D. Bullock and illustrated by Debby Fisher

What Teachers Are Saying

Let's Learn English Lesson Plan

Fifth Grade Science Inquiry Questions

Universal Design for Learning Lesson Plan

Instructional Supports for Common Core and Beyond: FORMATIVE ASSESMENT

Maryland Science Voluntary State Curriculum Grades K-6

Physics 270: Experimental Physics

EQuIP Review Feedback

End-of-Module Assessment Task

Students Understanding of Graphical Vector Addition in One and Two Dimensions

Arizona s College and Career Ready Standards Mathematics

The lab is designed to remind you how to work with scientific data (including dealing with uncertainty) and to review experimental design.

Curriculum Design Project with Virtual Manipulatives. Gwenanne Salkind. George Mason University EDCI 856. Dr. Patricia Moyer-Packenham

Classroom Assessment Techniques (CATs; Angelo & Cross, 1993)

Create A City: An Urban Planning Exercise Students learn the process of planning a community, while reinforcing their writing and speaking skills.

Content Language Objectives (CLOs) August 2012, H. Butts & G. De Anda

This map-tastic middle-grade story from Andrew Clements gives the phrase uncharted territory a whole new meaning!

with The Grouchy Ladybug

INSTRUCTIONAL FOCUS DOCUMENT Grade 5/Science

Scientific Method Investigation of Plant Seed Germination

Tears. Measurement - Capacity Make A Rhyme. Draw and Write. Life Science *Sign in. Notebooks OBJ: To introduce capacity, *Pledge of

Person Centered Positive Behavior Support Plan (PC PBS) Report Scoring Criteria & Checklist (Rev ) P. 1 of 8

Mathematics process categories

Scientific Inquiry Test Questions

Common Core State Standards

This curriculum is brought to you by the National Officer Team.

Lecturing Module

Scoring Guide for Candidates For retake candidates who began the Certification process in and earlier.

Mini Lesson Ideas for Expository Writing

: USING RUBRICS FOR THE ASSESSMENT OF SENIOR DESIGN PROJECTS

Includes Activities for all ages CHALLENGE LEVEL 1. Explore STEM with

Sample from: 'State Studies' Product code: STP550 The entire product is available for purchase at STORYPATH.

Just in Time to Flip Your Classroom Nathaniel Lasry, Michael Dugdale & Elizabeth Charles

Fieldfare Kielder Challenge

Designing a Rubric to Assess the Modelling Phase of Student Design Projects in Upper Year Engineering Courses

Literacy THE KEYS TO SUCCESS. Tips for Elementary School Parents (grades K-2)

PART C: ENERGIZERS & TEAM-BUILDING ACTIVITIES TO SUPPORT YOUTH-ADULT PARTNERSHIPS

Introduction to Forensics: Preventing Fires in the First Place. A Distance Learning Program Presented by the FASNY Museum of Firefighting

Tutoring First-Year Writing Students at UNM

Classify: by elimination Road signs

Smarter Balanced Assessment Consortium:

Hardhatting in a Geo-World

QUICK START GUIDE. your kit BOXES 1 & 2 BRIDGES. Teachers Guides

TIMSS Highlights from the Primary Grades

Lesson M4. page 1 of 2

Epping Elementary School Plan for Writing Instruction Fourth Grade

Student s Edition. Grade 6 Unit 6. Statistics. Eureka Math. Eureka Math

With guidance, use images of a relevant/suggested. Research a

WHI Voorhees SOL Unit WHI.3 Date

For information only, correct responses are listed in the chart below. Question Number. Correct Response

Prerequisite: General Biology 107 (UE) and 107L (UE) with a grade of C- or better. Chemistry 118 (UE) and 118L (UE) or permission of instructor.

What is this species called? Generation Bar Graph

Transcription:

During this investigation, you are going to explore how ice melts. You will be exploring the testable question, Can I affect the rate at which ice melts? To do this, you will make some predictions about what makes a good insulator or what would slow the rate of ice melt. Using a control, you will record the rate at which your ice cube melts. You will be comparing your findings with the findings of others in the class. Following the inquiry, you will draw conclusions about insulators and give an explanation for why the control was important for this experiment. 1 of 11

Suggested Grade Span 3 5 Task During this investigation, you are going to explore how ice melts. You will be exploring the testable question, Can I affect the rate at which ice melts? To do this, you will make some predictions about what makes a good insulator or what would slow the rate of ice melt. Using a control, you will record the rate at which your ice cube melts. You will be comparing your findings with the findings of others in the class. Following the inquiry, you will draw conclusions about insulators and give an explanation for why the control was important for this experiment. Big Ideas and Unifying Concepts Cause and effect Change and constancy Models Physical Science Concept Properties of matter Design Technology Concept Invention Mathematics Concepts Data collection, organization and analysis Graphs, tables and representations Measurement Ratios Time Required for the Task Allow a planning session that will take 15-30 minutes. (I gave a prompt as a homework assignment the night before.) Prepare containers (5-10 minutes); wait for ice to melt (1/2 day or more); write-up (15-30 minutes). 2 of 11

Context The students were exposed to the scientific method earlier in the year and have continued to build upon their understanding through various testable situations. This task solidified their understanding of the value of control in experimentation. With the tangible example of the melting ice, they had something concrete with which to compare their findings. The focus was not so much on learning about insulation as on the skills of recording information and comparing results. Their results and comments gave me an assessment checkpoint to understand their knowledge of the scientific process as well as their ability to accurately record information and draw conclusions. What the Task Accomplishes This investigation task is a good opportunity to apply the scientific method. It allows the teacher to assess the students' grasp of science terms associated with the scientific method. The following aspects of the scientific method are included in this activity: testing a hypothesis based on a prediction, collecting and recording data, comparing findings to a control, and analyzing data to draw conclusions. How the Student Will Investigate Students will be given an 8-ounce yogurt cup. As a homework assignment the night before, they are given the prompt: Design a good insulator, that would fit in your cup, that would keep ice from melting. The students are then instructed to come to school the next day prepared to experiment. To begin the experiment the students take a few minutes to prepare their cup. Students are then instructed to measure and record the size of their ice cube and the control cube. The control cube is placed in the yogurt cup without any insulation. The cups are then all placed in the same area of the classroom. The sizes are checked at regular intervals. When the experiment is over (i.e.: cube melts, control melts) the students take time to draw conclusions from their observations. The write-up includes four questions: What makes a good insulator? What were not good insulators? Why is the control important? What would you choose if you were to do the experiment again? Interdisciplinary Links and Extensions Science We did this experiment during a mini-unit on the Polar regions of the world. We also learned about glaciers, icebergs, ice shelves and ice sheets. We were also able to cover a bit of earth science as we learned about the tilt of the earth and why the polar regions are so cold. 3 of 11

Language Arts Many children s books compare the two polar regions or cover exploration and adventure in Antarctic and the Arctic. Students could also write their own books comparing these regions. Mathematics It is optimum to have the experimental ice cube and the control ice cube be the same size. For some students ready for a mathematical challenge, however, I gave them ice cubes of different sizes. Those students calculated the rate of melt by the use of simple ratios. Social Studies As another interdisciplinary link the students used a Venn diagram, comparing/contrasting the animals of the Arctic with those of the Antarctic. Teaching Tips and Guiding Questions Keep the ice cold until ready to use. If the ice is allowed to melt a little bit before it is used, it tends to clump together, causes chips, and cracks when you pull it apart. Students should also label their yogurt cups in advance. Some guiding questions could include: What is your prediction? What question are you trying to answer? Where should we place the cups after putting the cube in them? Should we put all the cups in the same spot? Why or why not? What will make this a fair test? Should we check on the cups at certain times? Why or why not? Do you think you chose a good insulator? Why or why not? What would you change next time, if anything? Why would you do so? Concepts to be Assessed (Unifying concepts/big ideas and science concepts to be assessed using the Exemplars Science Rubric under the criterion: Science Concepts and Related Content) Mathematics: Students determine the patterns and/or which kinds of change are happening by making a graph or a table of measurements (change and constancy). Students understand that representing and analyzing data appropriately, identifying trends and patterns and using numerical data and precise measurements in describing events, answering questions, providing evidence for explanations and challenging misconceptions are important in scientific inquiry. Scientific Method: Students observe and explain reactions when variables are controlled (cause and effect). Students see that how a model works after changes are made to it may suggest how the real thing would work if the same thing were done to it and that choosing a useful model (not too simple, not too complex) to explore concepts encourages insightful and creative thinking in science, mathematics and engineering (models). 4 of 11

Physical Science Properties of Matter: Students observe and compare physical properties of matter. Design Technology Constraints and Advantages: Students observe that some insulators are better at keeping ice from melting than others. Students identify the characteristics of a specific property to determine if it would make a good insulator. Skills to be Developed (Science process skills to be assessed using the Exemplars Science Rubric under the criteria: Scientific Procedures and Reasoning Strategies, and Scientific Communication Using Data) Scientific Method: Observing, predicting/hypothesizing, collecting and recording data, manipulating tools, drawing conclusions, communicating findings, challenging misconceptions and raising new questions. Other Science Standards and Concepts Addressed Scientific Method: Students describe, predict, investigate and explain phenomena. Students control variables. Scientific Theory: Students look for evidence that explains why things happen and modify explanations when new observations are made. The Designed World: Students understand that manufacturing requires a series of steps and, depending on the task, careful choice of materials (based on their characteristics). Physical Science Properties of Matter: Students observe, describe and sort objects and materials according to observations of similarities and differences of physical properties. Mathematics: Students use appropriate data representation and data analysis to identify trends and patterns, and use numerical data and (precise) measurements in describing events, answering questions, providing evidence for scientific explanations, and challenging misconceptions. Suggested Materials This activity requires little advanced preparation and minimal materials. A yogurt cup for each student and one for the control, ruler, ice cubes, (approximately the same size), and the materials the student chooses to use as insulation, brought from home. For students who do not bring in materials, you might have various types of cloths, paper, plastic, Styrofoam packing peanuts, etc., on hand. 5 of 11

Possible Solutions Students should be able to determine what materials made better insulation by comparing melt times (some of the classroom s best included snow and newspaper). Students show their understanding of the term "control" throughout the experiment by explaining its importance in relationship to this inquiry. The student should be able to explain that it is necessary to compare the melt time of an ice cube in an insulated cup with the melt time of a cube in a cup without insulation to determine if the insulation is effective. The student should also be able to determine what s/he might do differently next time. Some students may think of something new they would like to test that wasn t tried during the inquiry. Task-Specific Assessment Notes Novice This student s solution is lacking in detail and shows little understanding of what would make a good insulator. S/he also states that the cube will last longer in a colder spot, despite being told that all the cups would need to remain in the same spot. The student s data are recorded, but units are not labeled. There are no conclusions drawn from the data. The task is incomplete. Apprentice This student s work shows that s/he was able to understand the purpose of the inquiry and the use of control. The hypothesis, I think mine will be bigger than the control piece of ice because mine has a good seal, demonstrates some understanding; however, the student then state, If it s a good insulator then it might melt faster or slower, which is confusing at best. The statemen, Control is so you can find out if your insulator works, is a brief response showing some understanding. When the student comments on what s/he would do differently, it is not clear what materials the student is referring to ( all the insulators I thought of ) evidence that the student is not using data to draw conclusions. Practitioner This student s solution is complete. In the hypothesis, the student gives a reasonable explanation of which cube will last longer and why s/he believes it will be larger. Measurements are precise (although numerals should be used), units are labeled, and all data are recorded correctly. Conclusions are based on data collected and show evidence that the student understands the purpose of using a control. Expert This student s solution is complete, accurate and detailed. In the hypothesis, the student gives a reasonable explanation of which cube will last longer and why s/he believes it will last longer ( paper towels will slow the process of melting an ice cube ). Measurements are precise, units are labeled, and all data are recorded correctly. Scientific terms are used appropriately. 6 of 11

Novice 7 of 11

Apprentice 8 of 11

Practitioner 9 of 11

Expert 10 of 11

Expert 11 of 11