Engineering Project Boat Building Challenge

Similar documents
The grade 5 English science unit, Speed, meets the academic content standards set in the Korean curriculum, which state students should:

The grade 5 English science unit, Speed, meets the academic content standards set in the Korean curriculum, which state students should:

#6 Lesson Emergency Rescue Vehicles Engineering Design Assessment

Sail Through Engineering Post-Workshop Activity

Table of Contents. Career Overview... 4

Wonder. Research. Test and Discover. When you blow up a balloon and let go, why does it fly all over the place? How can you control its speed?

Newton s Triple Play Explore

What do we know about air? What have we observed?

The Science of Boat Design

Connect the hose to the Water Play Dome bucket and fill the bucket

Investigating Sinking and Floating

ANSWER KEY Station #1: Clothespin Lab

Students measure the change in pressure by varying the volume of trapped air in a syringe while:

Helicopter & Launcher

Engineerathon (Wacky Sports Day) Investigation 5 - Forces. Teacher Information

Rocket Activity Using Dependent and Independent Variables. Constructing the Rocket and Launch System Compressor (LSC)

Gravity, Force and Work

Aim To investigate the effect of drag on cones of various sizes, dropped through the air.

Lesson Plan: Bernoulli s Lift

The Science of Golf. Test Lab Toolkit The Swing: Putting. Grades Education

Build Your Own Zooplankton

science-u.org How do you launch a rocket without using Air Pressure Rockets Directions You Will Need ESTIMATED TIME Minutes

Lab Report. Objectives:

Table of Contents. Career Overview... 4

PUT TING SCIENCE TO FLIGHT T E A C H E R S G U I D E

SCIENCE and TECHNOLOGY CYCLE 3 MCCAIG ELEMENTARY

Newton s Laws of Motion

DESIGN A JET-POWERED BLIMP (JPB)

Unit Contents. Chapter 3 Achieving and Maintaining Flight. Chapter 4 Flight Design

Today Mr. Happer told us to use the following physics vocabulary words and relate them to our experiment:

Helicopter C.E.R. Teacher Pages

ACTION FIGURE DIVER. DESIGN CHALLENGE Construct a neutrally buoyant scuba diver who neither sinks to the bottom nor floats on the surface.

An exploration of how the height of a rebound is related to the height a ball is dropped from. An exploration of the elasticity of rubber balls.

BUILD A BETTER BOAT. Overview. Standards

SC.5.P.13.2 Investigate and describe that the greater the force applied to it, the greater the change in motion of a given object.

Each Siemens STEM Day classroom activity highlights one or more components of the engineering design cycle and an essential 21 st -century skill.

Although many factors contribute to car accidents, speeding is the

2 Buoyant Force. TAKE A LOOK 2. Identify What produces buoyant force?

NASA Engineering Design Challenge The Great Boomerang Challenge Teacher Guide Overview your students excited about this lesson

Washington TSA. Cardboard Boat Challenge

Materials: Balloon demo (optional): - balloon, string, drinking straw, flour (optional)

X Marks the Blind Spot

Bernoulli s Principle at Work

Cartesian Diver Design Challenge

FORCE MOTION AND ENERGY EXPLORATION. Egg Spin

Supported by. A seven part series exploring the fantastic world of science.

STUDENT NAME. Science- Grade 4. Read each question and choose the best answer. Be sure to mark all of your answers.

BOTTLE ROCKET. What you need to make one

Sail Away. Provided by TryEngineering - Lesson Focus. Lesson Synopsis. Aligned year levels Years 2, 4, 7 and 10.

Honors Physiology The Respiratory System

Contents: Intro:... page 7. Story, Ending... page 6 Video Transcript: Experiment: Sunken Rafts...page 10 Story Ending... page 12

GLIDING ON AIR (1 Hour)

Experimental Procedure

Spin to Win HERE S WHAT YOU LL NEED:

Flying High. HHJS Science Week Background Information. Forces and Flight

ROCKET LABTM. Technology. Fins R Roots! 1. LEARN (First class session)

Earthquake Waves. Purpose: To give students a visual example, using a slinky, of how an energy wave propagates through the Earth.

Fluids. How do fluids exert pressure? What causes objects to float? What happens when pressure in a fluid changes? What affects the speed of a fluid?

The Academy of Model Aeronautics ALPHA: Potential Energy Background Information for the Teacher

POMS Science Summer Challenge

Design and Make a foam rocket

Buoyancy and Density. Buoyant Force and Fluid Pressure. Key Concept Buoyant force and density affect whether an object will float or sink in a fluid.

LAUNCH IT. DESIGN CHALLENGE Design and build an air-powered rocket that can hit a target at least 5 feet away.

Air Temperature, Melting Ice and Disappearing Land

By Robyn Kademan and Shawdi Nesbit

Provided by TryEngineering -

Recognise that some mechanisms, including levers, pulleys and gears, allow a smaller force to have a greater effect

a. Determine the sprinter's constant acceleration during the first 2 seconds. b. Determine the sprinters velocity after 2 seconds have elapsed.

How Do You Swing? You should be working with new lab partners starting with this lab.

Assembly instructions nortik scubi 2 Recreational kayak

1 A Mangonel is a type of catapult used to launch projectiles such as rocks. A student made a working model of a Mangonel. crossbar. bucket.

Post-Show FLIGHT. After the Show. Traveling Science Shows

Teacher's Manual. First Printing: September Master Books P.O. Box 726 Green Forest, AR Printed in the United States of America

Objective: To launch a soda bottle rocket, achieve maximum time of flight, and safely land a payload (tennis ball).

Aviation Teleclass Webinar!

2006 AIMS Education Foundation

Exam Unit 5: Motion and Forces

ROCKET LABTM. Science. 1. LEARN (First Class Session) Viking Varieties,Wonderful Wizards, Awesome Alphas. Standard A Science as Inquiry

Rocket Activity Foam Rocket

SPACE TRAVEL. Focus: ROCKETS UNDERSTANDING THE BASICS

Rockets. After School STEM Academy 6-8 th Grade Curriculum

Owner s Guide. ElevateSUP.com

Quarterly Science Benchmark Assessment (QSBA) Physical Science. Quarter 1

ELEMENTARY SCIENCE PROGRAM MATH, SCIENCE & TECHNOLOGY EDUCATION. A Collection of Learning Experiences BUOYANCY CATTARAUGUS-ALLEGANY BOCES GRADE 3

DragonflyTV: GPS Activity 9

The Science of Golf. Test Lab Toolkit The Swing: Putting. Grades 6-8

Different Size, Same Shape

Push & Pull You can see the forces push and pull at work with this door. We can push the door to close it, or pull the handle to open it.

SAFETY WARNING. WARNING.

INNOVATION TOOLS OF THE TRADE PRE-VISIT - BUILD A BETTER BASEBALL

Blazer Marine, Whiplash Sport 40

NAME:... SCHOOL: FORCE INSTRUCTIONS TO CANDIDATES. Answer ALL questions in this paper in the spaces provided.

DENSITY AND BUOYANCY

PARTICLE SPACING PART 1

To be able to swim, fish need to: Overcome drag Maintain their vertical position in the water column Maintain an upright position Change directions Mo

How Fast Is Your Toy Car?

From and

Parts of a Plane Bernoulli s Principle

Brunel Would have Been Proud of You

Hulls. Contact the National Museum of the U.S. Navy for Field Trip and School Visit opportunities!

Transcription:

Engineering Project Boat Building Challenge Most boats and ships have the same basic shape and design. They are longer than they are wide, and typically they taper to a point in front. The pointed front acts like a wedge. It pushes the water to the side as the boat moves forward. If a boat were flat in the front, like the blade of a bulldozer, then water would build up against the front of the boat and slow it down. Suppose you are a nautical engineer working for a ship building company. Your company supplies ships to other companies that transport goods across the ocean. Your clients have said that they need ships that can travel across the ocean more quickly and that can carry more cargo than their older ships. How can the design of a boat be changed to increase its speed or the weight it carries? In this project you will investigate answers to these questions. To carry out this investigation, you will design, build, and test a model boat from a set of simple materials. Here are the rules for the project: You may use only the materials that the teacher provides. If you want to use additional materials, the teacher must approve them. The force to move the boat will come from an inflated balloon. Your teacher will provide the balloons. You will inflate and install the balloon before launching the boat, and then let the balloon deflate. After the boat is launched, you may not touch the boat or influence its motion in any way. Points will be awarded in three performance categories: 1. the boatʼs speed and the distance that it travels 2. the straightness of the boatʼs path 3. the amount of weight that the boat can carry

Suggested Materials (per pair or group) For building the boat: a box of pencils (unsharpened) balloon drinking straw rubber band disposable aluminum baking pan or pie pan aluminum foil duct tape or glue clothespins Additional materials: meter stick or measuring tape scissors 5 or 6 waterproof weights, such as sealed plastic bags containing 10 to 20 dried beans sink or bucket, filled with water science notebook or journal for each student calculator balance or scale stopwatch pool or tank (per class) Procedure Part 1: Building the Boat 1. Review the materials for building the model boat. With your partners, discuss how you could assemble the materials. You may wish to view videos or consult reference sources to help you identify the parts of a boat and their functions. 2. With your partners, discuss ideas for meeting one or more of the performance categories of this project. You may decide to try to outdo classmates in gaining points in only one category. Or you may try for points in all three categories. To help develop your ideas, try joining the materials temporarily in different ways. Make drawings and sketches, too. 3. Be sure to include a mechanism to hold an inflated balloon in place and to release it. For example, the mouth of the balloon could be tied to the drinking

straw, then the balloon could be taped or pinned into the boat. You could use a clothespin like a valve to let the air out of the balloon. 4. Agree on a design for your boat, and complete a drawing of it. The drawing should serve as a guide for building the boat. The drawing should also include the forces that affect the motion of the boat, including its weight (a downward force), thrust (the forward force from the balloon), buoyancy (the upward force from the water), and drag (a backward force due to resistance from the water). 5. Follow your design and build the boat. You may need to revise the design as you proceed. Part 2: Testing the Boat Before completing the tests, assign a role to each group member. Roles include preparing the added weight for the boat, inflating and installing the balloon, timing the boat, measuring the distance of travel, recording data, and supervising all aspects of the investigation. Be sure to record all data. You may copy or tape the Data Table into your journal or notebook. 6. Test whether the boat will float. You may test it in a sink or a large bucket filled with water. 7. Measure the weight of the boat, as well as the weights of the standard weights. Place the boat in water, and then add weights to the boat to find out how much weight it will hold before sinking. 8. Now test your boat in the tank or pool that the teacher provides. Determine a starting point and finish line, and measure the distance between them. Then launch the boat, and measure its time and distance of travel. Repeat the test with added weights inside the boat. Conduct as many trials as time allows. Record the results of each trial in the Data Table shown below. 9. After all boats have been tested, your teacher will award points.

Data Sheet Weight of the boat without extra load: Maximum extra weight (load) that boat will hold without sinking: Maximum travel distance (from starting point to finish line): Data Table for Testing the Performance of a Model Boat Trial 1 Weight of the boat and load Distance travel of Travel time Speed of travel (distance/time) Path (straight, curved, zigzag) Other observations 2 3 4 5 6 7 8

Analysis 1. Describe the forces that affect the motion of a boat. Include a drawing to show the forces. 2. What problems did you encounter in designing and testing your model boat? How did you address these problems? 3. Analyze Review the data you recorded in the Data Table. Make a graph of weight versus speed. How did the total weight of the boat and its load affect the speed? Did the total weight also affect the distance traveled and the straightness of the path? 4. Analyze Compare your test results to other groupsʼ results. a) Which boat was fastest? Which features do you think helped maximize its speed? How do these features affect other factors of a boatʼs performance?

b) Which boat carried the most weight without sinking? Which design features helped maximize the weight a boat could carry? How do these features affect other factors of a boatʼs performance? c) Which boat traveled in the straightest path? Which features helped stabilize the boat? How do these features affect other factors of a boatʼs performance? 5. Explain What are the advantages of using aluminum as the building material for a boat? 6. Evaluate Think about the experimental design of the tests you performed on the boat. Were you able to control all of the variables? How easy or difficult was it to make your measurements? How should the investigation be improved to make sure the results are meaningful? 7. Apply Think about a report you would write to the managers of the ship-building company. What design changes would you recommend to make a ship faster and able to carry a heavier load?