Final Project Brian Conicker Teddy Egnaczyk. 1.Setup.

Slides:



Advertisements
Similar presentations
Tuesday October 30, Really know 3 Know 2 Know most 1 Know sort of 0 Dont know Collect quiz corrections.
Advertisements

Name of Our Car Analysis of Data, Interactions, Energy Transfers, and Forces Student Name & Student Name Correia Middle School, 8 th Grade Mr. Gardinier,
Agenda 1. Into to Newtons Laws 2. Using Newtons Laws to build a smart barrier 3. Experiment 4. Final Conclusions.
Mousetrap Car Project By: Jeremiah Oghafua.
Soaring Straws Lab Question: How does the gravitational potential energy of a straw rocket depend on the elastic potential energy of the rubber band launcher?
Energy Chapter 5 Section 2. What is Energy? Energy – A scalar quantity that is often understood as the ability for a physical system to produce changes.
Device constructed of mostly wood, plastic, and duct tape. Materials utilized: Racecar track with car Spring Marble Mousetrap Cut up plastic coke bottle.
Parabolic Hacky Sack Launch Mechanism Kristin Hans Khalid Al Mehairi Mark Quijano Jonathan Koehler The Bamboo Launchers School of Engineering University.
 Chapter 3. Lesson 1 Energy  The ability of a system to do work. Two types of energy: Kinetic Energy Potential Energy.
Kinetic and Potential Energy
Energy White Board Review Pick up a white board, marker, paper towel and a calculator.
Kinetic and Potential Energy Notes Chapter 5-2. Mechanical Kinetic Energy Amount of energy an object has based on motion Depends on the mass of the object.
Initial PS project MPV Cars. Mousetrap powered vehicles Used as an visual and physical example of most major concepts that we will explore in the physics.
Chapter 4. The nature of energy Energy: The ability to do work or cause change All energy involves either motion or position Where are we using energy.
Work on an Incline Lab (name and period).
TAKE CORNELL NOTES ON A LOOSE SHEET OF NOTEBOOK PAPER. TURN THIS IN ON THURSDAY, 2/20/14.
Kinetic and Potential Energy
Potential and Kinetic Energy. What is Energy  Energy –is the ability to do WORK!!!  Two types of energy –Potential Energy –Kinetic Energy.
Mrs Sedlock Principles of Chemistry and Physics
Vocabulary Motion- when distance from another object is changing Speed- the distance it travels divided by the time it takes to travel that distance Velocity-
Trebuchet: Main Parts of a
 Key Learning ◦ Energy can be transferred through a mechanism to perform a given task.  Unit Essential Question ◦ How can energy be transferred from.
Energy, Work, and Transfer of Energy Physical Science Chapter 12.
Elastic Potential Energy
Elastic P E This is the stored energy of any stretched or compressed object. You can find the EP E of an object by taking the object’s stretch (x) and.
Working With Wind Energy.
The Hipster Mobile scale 1cm:60 inches. BEEN THE CAR OF THE FUTURE BEFORE IT WAS COOL TO BE THE CAR OF THE FUTURE By: Eric Cheng Micky Harris Lindsey.
Chapter 12: Work & Energy Section 1 – Work & Power.
MEASURING FORCES Main Idea: Elastic materials can be used to measure force. Pg. 14 of IAN.
Work – Power Questions – 1 If A and B are both the same height, Do they have the same amount of Potential Energy?
Section 15.1Energy and Its Forms
RS U2C2A4 Elastic Interactions. We Think p 168 Answer #s 1-2.
Marshmallow Launcher Project
My Car Design A Scientific Process. The Prototype The prototype of my car was made from 3 panels of 3mm balsa glued together with a hot glue gun. Two.
CRASH TEST EGG RACES!!! BY KEVIN, ANNA, AND KYLI.
Strike-slip Fault Investigation. Earthquakes are caused by the motion along plate boundaries.
Potential and Kinetic Energy Understanding the cyclic nature of potential and kinetic energy.
Kinetic energy exists whenever an object which has mass is in motion with some velocity. Everything you see moving about has kinetic energy. The kinetic.
Unit 5 Relationships among forms of energy
Miscellaneous Mechanics
THE RADICAL.
ENERGY, WORK & SIMPLE MACHINES
General science 8 Paper car race and crash contest
examples that align with this definition of work?
Chapter 7: Energy & Energy Transformations
Mechanical Energy -Potential & Kinetic Energy
Roller Coaster Physics
The X Component Designers: Brianna Cooper Zachary Jeppesen
ENERGY EQUATIONS By the end of this presentation you should be able to: Calculate kinetic energy, work and power.
Marshmallow Launcher Project
Describe the differences between kinetic and potential energy.
Elastic Potential Energy
Energy and Its Forms 15.1 pg
The Balloon Car Lab.
Potential and Kinetic Energy
KE and PE Practice Quiz Solutions.
Chapter 13 Lesson 1: Forms of Energy
Ballista Project 2 120mm Axle hole 3 Nails 1 200mm
WORK, POWER AND ENERGY! (ACCORDING TO PHYSICS)
Period 2 Question 1.
Not so easy it seems… Windmill Energy.
What is Energy?.
Energy: Forms and Changes
GEORGIA S8P2 Students will be familiar with the forms and transformations of energy Explain the relationship between potential and kinetic energy.
Toothpaste Extravaganza
ENERGY.
Pull the spring scale a longer distance.
Case study III: An EGG-stremely delicate situation
Can you stop the Car and/or the Bullet
ENERGY, WORK & SIMPLE MACHINES
Presentation transcript:

Final Project Brian Conicker Teddy Egnaczyk

1.Setup

1.Setup Continued h?v=qrmJqEmlsaM

Materials Ramp: Cardboard, Glue, Wood Rubber Band Cars Popsicle Sticks, Wooden Dowel Rods, Metal Rods, Straws Milk Bottle Caps, Glue, Duct Tape

2. Calculations 1.Elastic Potential Energy -Rubber Band stretched to 30 cm = PE =.9614 J 2. Mechanical Energy -Max speed calculated of Rubber Band Car = 1.1 m/sec J 3. Velocity needed to complete loop -Velocity = 2.1 meters / second -=MUST FASTER THAN THE RUBBER BAND CARS

2. Calculations continued 4. Mechanical Energy of Rubber Band Car J -Most of the Energy was not transferred to the forward velocity 5. Mechanical Energy of Regular Car m/sec = Greater than the necessary speed to complete loop J of Mechanical Energy 6.

3. Trials -Ramp -Very flimsy -We attempted to support it with wooden blocks -Rubber Band Cars -Sturdy -Worked well except for wheels -With correct adjustments they were able to pick up a velocity

3. Trials continued -Launching Pad -More consistent velocity -Met velocity requirement -Completed loop easily

4.Error Analysis 1.Rubber Band Cars a.Loss of traction on wheels b.Inconsistent application of force from rubber band c.Material / Size of wheels 2.Ramp a.Needed to be more rigid b.Cardboard connection points should have been smoothed out 3.Launching platform a.Inconsistent application of force