A medium as
interactive as a tablet should be doing a lot more than spoon-feeding
worksheet problems to children.
The game can easily be learned through play, but if you’re curious and press the ? key you’ll see the instructions screen.
Your world is a numbered gear with modulus 65. You have the ability to scale given integers with small gears that turn the large gear. You can scale to the left or to the right. By playing this game, a learner can develop a schema for integers and integer modular arithmetic.
The game levels are like lessons planned by an experienced math instructor. They provide an adequate challenge, give immediate feedback, and encourage mistakes.
You may be thinking, "So I just turn these little gears and they move the big gear to free the cute creature called a Wuzzit? Easy enough, what’s the catch Rushton?"
First check out the list of
advisors. No catch.
Learning Design
B. F. Skinner wrote, "A machine that teaches by arranging contingencies of reinforcement is a teaching machine.”[1] (p. 110) Many of the game features in Wuzzit Trouble are similar to those found in popular mobile games, like Angry Birds (stars for achievement, high scores, cute creatures expressing emotions...) Our children become increasingly persistent at tackling the obstacle presented by the game to earn the next reward. We demonstrate a behavioral reaction not so different from Skinner's dog jumping to the sound of a clicker.
James Paul Gee wrote, "Good games operate at the outer and growing edge of a player's competence, remaining challenging, but do-able" [2] (p. 2). This sounds like a condition for the state Csikszentmihalyi dubbed "Flow." I was completely absorbed by this game, and feel like it satisfied many of Gee's video game learning principles. The complete discussion of these principles is in his 2003 book, What Video Games Have to Teach Us about Learning and Literacy [3]. This work was heavily referenced in Keith Devlin's 2011 book, Mathematics Education for a New Era: Video Games as a Medium for Learning [4] where Devlin applies Gee's ideas to mathematics education, through a mathematicians lens.
For more immediate content:
There is a
useful post/interview of Keith Devlin by
Jordan Shapiro.
There is a
useful post/interview of James Paul Gee by
Henry Jenkins.
James Paul Gee has a
short series of youtube clips on this topic.
People love video games. Most readers would probably agree with Gee arguing that all video games are teachers. They are designed to teach the user how to play the game better. The trick lies in making the mechanics of the game near enough to the underlying principle being taught so that transfer of the mental models can occur. Wuzzit Trouble is fun to play and the progression is smooth. In order to get to the later levels, the game designers will have taught a course to you in the form of a game. The fundamental mechanics of a well designed game will transfer to other structures in the world. You will be able to solve systems of linear equations in 4 variables on a mod65 ring, feel accomplished for it, and see number patterns and structures in your mathematics classes as a result of your fun.
Keep 'em coming Innertube Games! Thank you for your considerable contribution to our society.
This is an extraordinary game. Get it for your children.
Peace and Blessings,
Evan
Enhancement - I Wish...
The highest scores were reserved for the least number of moves. (3 stars and all bonus items in 6 moves should not be the same as 3 stars and all bonus items in 5 moves )
There were more levels.
When you overshoot a position it counts against you. (right now the excess is ignored)
There were a way for me to tell the story of the game and identify features of the game, in my own reflective journal. (interact with the progress metrics somehow)
There were multiplayer options to promote collaboration and/or competition.
Appendix - Wuzzit Trouble is "Standards-Based"
I will identify the “standards” that are being taught for the first 5 levels to serve as examples to support this claim, and I encourage the reader to play the rest of the levels to verify the veracity of this claim.
Integer addition, subtraction and multiplication are a subset of the Number & Operations in Base Ten Domain:
http://www.corestandards.org/Math/Content/NBT and the fact that there is negative scaling to turn the wheel counterclockwise provides a foundation for the Number System Domain that starts in grade 6:
http://www.corestandards.org/Math/Content/NS
Beyond content standards, the game helps to reinforce some of the
Standards of Mathematical Practice. It is a process of discovering new properties of numbers in order to beat the progressive levels. It involves persistence, precision, repeated reasoning, and developing an awareness of the underlying mathematical structure.
Level 1-1 – Positive integer addition
The student will demonstrate the ability to tap and turn the small gear clockwise.
Level 1-2 – Positive integer multiplication and addition
The student will demonstrate the ability…
(2 stars) to tap and turn the small gear in multiple moves
(3 stars) to tap and turn the small gear a scalar multiple of turns.
Level 1-3 – Positive integer multiplication and addition
The student will demonstrate the ability…
(2 stars) to tap and turn the small gear in multiple moves
(3 stars) to tap and turn the small gear a scalar multiple of turns.
CCSS.Math.Practice.MP7:
Look for and make use of structure.
The student will be introduced to repeated intervals
Level 1-4 – Negative integer multiplication and addition
The student will demonstrate the ability…
(2 stars) to tap and turn the small gear in multiple moves
(3 stars) to tap and turn the small gear a negative scalar multiple of turns.
Level 1-5 – Negative integer multiplication and addition
The student will demonstrate the ability…
(2 stars) to tap and turn the small gear in multiple moves
(3 stars) to tap and turn the small gear a negative scalar multiple of turns.
CCSS.Math.Practice.MP7:
Look for and make use of structure.
The student will again see a repeated interval in the negative direction
