District 11 Division of Operations & Instruction
Career & Technical Education


 

Gateway to Technology: Science of Technology
Course Number: ITM.SCITEC

Overview

View the Video Introduction. This interactive project-based course introduces students to the science of technology. Students will learn about MagLev technology, the mechanics of motion, the conversion of energy from one form to another, and the use of science to improve communication. Curriculum for this course is provided by Project Lead the Way. This is the first of four, 9 week independent units. The unit titles include; Design and Modeling, The Magic of Electrons, The Science of Technology, Automation and Robotics, Flight and Space.
Prerequisite: None
Course Description:  Course Length: 1   Period Length: 1   Grade Level:  6-8   Credit per Semester: 1

Career Connection
: This course is part of the
Education and Training Career Pathway. To learn more about his career, view the Science Technology Engineering & Mathematics Brochure
For Teachers
Quarter 1  2
Quarter 3  4
No Prerequisite
Next Course

Unit 1: The Mechanics of Motion
Unit 2: Energy Conversion Systems
Unit 3: Prototyping and Fabrication
Unit 4: Digital Electronics

Essential Questions

  • How can individuals impact people in decision-making positions?

  • What is the difference between a simple and a compound machine? Why do we use simple and compound machines?

  • Which simple machines in your device redirected force? Increased the input force? Reduced the input force?

  • Was the device you disassembled done with the least amount of parts needed or could you redesign it to use fewer parts?

  • If you could have used fewer parts, how would you have done it?

  • What were the most important criteria your team used to select the final design of your Rube Goldberg device and why did you use them?

  • What changes would you make if you could redesign your Rube Goldberg device?

  • What are two energy resources each for renewable and nonrenewable supplies?

  • Is the energy generated from falling water in a hydroelectric plant the same, more, or less than falling water?

  • Is solar energy unlimited? Why or why not?

  • What impact will the availability of energy sources have on the career you chose to research?

  • What impact do environmental concerns have on the future demand of your career choice?

  • What are the forces, other than the compressed air, that affects the working of a dragster?

  • What can be done to counteract the unwanted effects on your dragster of the forces you listed?

  • Is there a relationship between mass and average velocity for your class’ results?

  • Do you know of any conditions that could have affected the performance of your class when compared to the other classes? What were they?

  • Were your time trial results in the top, middle, or bottom third of the class?

  • What changes would you incorporate into your design to improve your performance if you could redesign your dragster?

  • How can the information about magnetic lines of force be applied to the placement of the magnets on the Mag-Lev vehicle?

  • In the beginning stages of the MagLev project, you had to be sure the vehicle would “float” on the track. How did you accomplish this task?

  • When the MagLev design could “float,” you had to give motion to the vehicle. What was one of the critical considerations you had to make in order to maintain the ability of the vehicle to still float?

  • How did you ensure a constant force was present to propel the MagLev vehicle?

  • What factors did you take into consideration when determining the mass of your MagLev vehicle?

  • Do you know of any conditions that could have affected the MagLev performance of your class when compared to the other classes?

  • Were your MagLev results in the top, middle, or bottom third of the class?

  • What changes would you incorporate into your design to improve your performance if you could redesign your MagLev vehicle?

  • What are the forces, other than compressed air, that affects the way a dragster moves?

  • What can be done to counteract the unwanted effects on your dragster of the forces you listed?

  • Is there a relationship between mass and average velocity for your class’s results?

  • Do you know of any conditions that could have affected the dragster performance of your class when compared to the other classes? What were they?

  • Were your dragster time trial results in the top, middle, or bottom third of the class?

  • What changes would you incorporate into your design to improve your performance if you could redesign your dragster?

  • How can the information about magnetic lines of force be applied to the placement of the magnets on the MagLev vehicle?

  • In the beginning stages of the MagLev vehicle project, you had to be sure the vehicle would “float” on the track. How did you accomplish this task?

  • When the MagLev design could “float,” you had to give motion to the vehicle. What was one of the critical considerations you had to make in order to maintain the ability of the vehicle to still float?

  • How did you ensure a constant force was present to propel the Maglev vehicle?

  • What factors did you take into consideration when determining the mass of your MagLev vehicle?

  • Do you know of any conditions that could have affected the performance of your class when compared to the other classes’ MagLev vehicles?

  • Were your MagLev results in the top, middle, or bottom third of the class? What changes would you incorporate into your design to improve your performance

  •  if you could redesign your MagLev vehicle? What shape provided the most stability in your tower design?

  • What could you have changed about your tower design to use less material without compromising the overall stability of your design?

Project Lead The Way
We are proud that we continue to meet our objectives which are to:

  • Increase the number of young people who pursue Engineering and Engineering Technology programs requiring a two or four year college degree.

  • Provide clear standards and expectations for student success in the program.

  • Provide leadership and support that will produce continuous improvement and innovation in the program.

  • Provide equitable and inclusive opportunities for all academically qualified students.

  • Reduce the future college attrition rates within four and two year Engineering and Engineering Technology degree programs.

  • Contribute to the continuance of America's national prosperity.

Sample Units

District 11 Diamond Units/Lessons Overview - includes information about the purpose, goals and structure of these sample instructional units:

Parents

 

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