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Tetrix Robotics

Cyber Security III Tetrix Project

Cyber Security III is a project based application of knowledge gained in Cyber Security I and Cyber Security II.  The current and in-depth project is the development of Tetrix Robotics with the help of an AFRL scientist/engineer. 

Presentation of Assembly, Engineering Design and Programming Skills

Essential Questions

NYS Standards

Thinking Skills

Assembly and Programming Journal

Minesweeping

Experiment

Demonstration of Tetrix Programming Skills

Assembly and
Engineering Design

 

 

 Two  essential questions will be answered:

“Can we use our knowledge and skills to program the Tetrix Robot to perform the minesweeping experiment?”

“Can we successfully introduce the WeDo Robotics program to Grade 3 so they can assemble and program robots?”

 

The following higher level  thinking skills are demonstrated:

  1. Knowledge and application of facts
  2. Comprehension (understanding of facts, demonstrated by organizing or interpreting them).  Using an engineering manual as a guide and then coming up with a design to perform the task.
  3. Application (using understanding to solve problems)
  4. Analysis (recognizing patterns suggested by facts and than making adjustments)
  5. Synthesis (producing something new).  Students mounted a laptop computer on one of the robots, downloaded skype, and attached a webcam to create a hallway scout.

Evaluation (judging quality of their design and improving it)
<http://www.learnnc.org/reference/higher+order+thinking>

  New York State Standards

ELA Standard 1  Students will  speak for information and understanding.  As speakers they will use oral  language to  interpret, apply, and transmit information.

ELA Standard 4   Students will listen and speak for social interaction.
Students will use oral and written language for effective social communication with parents, teachers and school board.

 

Mathematics, Science and Technology Learning Standards

Standard 1: Analysis, Inquiry, and Design

Standard 5:  Technology

  •  
    • Engineering Design
      • Key Idea 1 - Engineering design is an iterative process involving modeling and optimization finding the best solution within given constraints which is used to develop technological solutions to problems within given constraints.
      • Key Idea 1 - Alternate - Engineering design is a repetitive process involving modeling and optimization, finding the best solution within given constraints which is used to develop technological solutions to problems within given constraints.
    • Computer Technology
      • Key Idea 1 - Computers, as tools for design, modeling, information processing, communication, and system control
    • Technological Systems

Key Idea 4 - Technological systems are designed to achieve specific results and produce outputs, such as products, structures, services, energy, or other systems.

Cyber Security III students also educate the school community.  In addition to the Tetrix demonstration video is the WeDo education project with Grade 3 students.

 

  Assembly and Engineering Design

"Maxwell" in early stages when cannons
were sported for "looks". The outer frames were
built to protect the light sensor for the
minesweeping task.

 Innovative design and programming skills-

Robert and John improved their original design by taking 
the outside frames off and using one to cover 
the sensor for protection.  They mounted "Junior" our mini laptop and a web cam on the framework for an innovative design and programmed  Max to become a hallway scout! 


 Maxwell

 

 

 

"Droid" is Ryan's and Dom's robot

Droid is designed and programmed
to rove the activity map and identify
the location of "mines" by the
spikes on the Intelligent Control
software program on the laptop.

 

 

 

 

 

Yes 
"Yes" differs from Maxwell and Droid because it has a 3 wheel base design.
The front wheel can move sideways without a swivel because of its design.
We have yet to explore its capabilities.

   "Yes" is our AFRL mentor's model

 

Ryan Koscielniak

Dom Provenzano

 Assembly and Programming Journal 

12-13-10 – 12-20-10

We were given the Tetrix Robot Kit. After we were given the kit we started building the robot. We built the base of the robot and put on the wheels.

 12-21-10

We worked on finding a way to mount the battery to the robot.

 1-3-11

We made the NXT brick and the light sensor work. The brick is like the “brains” of the operation. The light sensor is there to act as a detector.

1-4

We built a protector for the light sensor.

1-5

Finished basic design, and stated to install software.

 1-6

Continued installing the Intelligent Control Software

1-7

Attached motor to second wheel. Ryan forgot to put wires on the motor. Discovered internal Bluetooth in Jr.(small laptop).  Finally Connected it to Jr. and it moved.

 1-10

We conducted the minesweeper experiment.

 1-11 – 1-24

We wrote up our experiment. See Experiment Write up below

 

 Tetrix Robot Minesweeper Experiment

 

Dominick Provenzano

Ryan Koscielniak

January 2011

  

Objective: To identify the general location of “mines” (white dots on a black background) using our TETRIX vehicle as a search robot. We couldn’t see our vehicle during the activity and will have to rely on real-time light sensor data information to locate the mines. 

Materials:  Tetrix robot, Intelligent Control software, light sensor, activity mat, laptop, remote control, internal bluetooth

 Experiment: After originally constructing these robots, we placed a Tetrix activity mat (shown in Figure 1) on the ground that had four white dots on a black background (these were “the mines”.)  Using the Intelligent Control software, we watched the reading on the laptop as the robot maneuvered on the mat.  We printed the screens for inclusion in our report.

 Observation

Figure 1:  The robot on the mat  

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Figure 2: The robot on the rug – sensor value of 31

 

Figure 3: Robot on the Black Part of the mat – flat lined at 28

 

Figure 4: Robot on the White background – has a starting sensor value of 35 and increases to 55

 

 Figure 5: Robot on the Gray background: starting sensor value of 50 and decreases to 40.

 

 Conclusion: We successfully mounted a light sensor on our Tetrix robot and using the intelligent control software we successfully detected the mines on the activity mat.