This time of year, schools scramble to select a book for their entire faculty to read over the summer. Although it would be nice if everyone read the same book as a basis for common dialogue and for teachers to read more than one book about learning each year, I just assembled a list for the (DK-8) school where I serve as the Special Assistant to the Head of School for Innovation. Based on our overarching goals of action, reflective practice, progressive education, learning-by-making, energetic classroom centers, creativity, and collegiality, I recommended the following books for this summer. If a school community was to read one book (besides Invent To Learn – Making, Tinkering, and Engineering in the Classroom) , I would recommend David Perkins’ book, Making Learning Whole.
- Perkins, David. (2010) Making Learning Whole: How Seven Principles of Teaching Can Transform Education. A clear and concise book on how to teach in a learner-centered fashion.
- Gandini, Lella et al… (2015) In the Spirit of the Studio: Learning from the Atelier of Reggio Emilia, Second Edition. A beautiful and practical book aimed at early childhood education, but equally applicable at any grade level.
- Littky, Dennis. (2004) The Big Picture: Education is Everyone’s Business. Aimed at secondary education, but with powerful ideas applicable at any level. This may be the best book written about high school reform in decades.
- Tunstall, Tricia. (2013) Changing Lives: Gustavo Dudamel, El Sistema, and the Transformative Power of Music. One of the finest books about teaching and learning I’ve read in the past decade. This lessons in this book are applicable across all subject areas.
- Papert, Seymour. (1993) The Children’s Machine: Rethinking School in the Age of the Computer. A seminal book that situates the maker movement and coding in a long progressive tradition. This is arguably the most important education book of the past quarter century.
- Little, Tom and Katherine Ellison. (2015) Loving Learning: How Progressive Education Can Save America’s Schools A spectacular case made for progressive education in the face of the nonsense masquerading as school “reform” these days.
The last book was not recommended for faculty at my school, but it is well worth reading!
You could also indulge yourself in the richest professional learning event of your life by participating in Constructing Modern Knowledge 2015. Limited space is still available.
The Best Invention and Tinkering Books, plus other cool stuff – including toys and kits
I’m enormously pleased that our publishing company, Constructing Modern Knowledge Press, has just released The Invent To Learn Guide to 3D Printing in the Classroom – Recipes for Success. The book is currently available in print and Kindle formats from Amazon.com.
The following is the text of the Foreword I wrote for the book. I hope you enjoy it.
3D printers are hot. They’re so hot that even schools are buying them. Although, schools are thought to be late adopters of emerging technology, I’ve been pleasantly surprised by how many already own 3D printers.
Investing in a school’s first 3D printer may be a down payment on the future of education; a future in which learning to learn with one’s head, heart, and hands will be equally critical. Making things is a great way to learn and an ability to make the things you need is an important 21st Century skill. The confidence and competence required to solve problems that the school curriculum or your teachers never anticipated will be the mark of a life well lived.
That said, once a school gets their 3D printer working reliably enough for each seventh grader to print an identical Yoda keychain, many educators are at a loss for next steps. That’s where this book comes in. David, Norma, and Sara share 18 projects designed to help teachers teach 3D design and enrich multiple curricular subjects.
Once you get the hang of 3D printing, you will realize how simple the hardware is. The real revolution may not be the printer as much as it is the democratization of design and the Z-axis.
For decades, CAD/CAM (computer-aided design/computer-aided manufacturing) software was too complicated and expensive for more than a few students to use. It was relegated to drafting classes and vocational settings. Now affordable and accessible software like Tinkercad make design child’s play. The ease of use associated with this new generation software does not mean that the design process has become any less rigorous. Design is where the mathematical reasoning, artistic sensibility, and engineering processes come to the fore.
We were all taught about the X- and Y-axes in school math class. Some of us may even use that coordinate system from time-to-time. However, with the exception of the occasional SAT question about the volume of a cylinder, you might conclude that we live in a 2D world. 3D printing and its design software bring us the Z-axis and provide an authentic context for using and understanding three-dimensional space. This book makes the conscious pedagogical decision to transition from 2D design to 3D artifact.
A common trope in educational discussions is, “Technology changes constantly.” Oh, if only that were true. If your school has spent two decades teaching kids to make PowerPoint presentations on subjects they don’t care about for an audience that doesn’t exist, then “technology” hasn’t changed much for you or your students (in school) since Alf went off the air.
In rare instances, there are revolutionary advances in technology that impact classroom practice. The technologies most closely associated with the maker movement, including: laser cutters, open-source microcontrollers like Arduino, and new ways to embed circuitry in everyday objects may indeed represent a paradigm shift in educational technology.
Since affordable and accessible 3D design is in its infancy, the authors provide you with experience exploring a variety of different software environments. You will also need to adapt instructions for the proclivities of your specific printer. Through this experience, you should be able to decide which software best meets the needs of you and your students. The hardware and software will change. Some of the companies producing your favorite software or printer may not last a school year. As a pioneer, you will need to remain flexible and on the lookout for better solutions. Once you find a software solution (or two) that works for you, use it. You don’t need to jump on every bandwagon or pretend that your students are learning something valuable because you keep changing software. Understanding which tools you choose to use and why is important.
In 1985, I flew cross-country to attend one of my first educational computing conferences. At the opening reception, I stumbled upon two gentlemen engaged in a mind-blowing discussion of Ada Lovelace’s work. One of the combatants was Brian Silverman and the other, David Thornburg. Over the past four decades, Brian and David have contributed as much as anyone in the world to what children are able to do with computers.
As I eavesdropped on the fascinating conversation, I silently vowed to spend the rest of my life in the company of smart people like the Lady Ada fans at that party. Fortunately for me, both men have become great friends and close colleagues. Prior to meeting David, I was familiar with his work through his many articles and the fantastic Logo books he authored. I had also taught with the Koala Pad, an affordable and reliable drawing tablet he had designed. David was already an accomplished mathematician, computer scientist, engineer, and designer with Xerox PARC and Stanford on his CV by the time I met him. Since then, David has been a great friend, collaborator, and trusted advisor.
David Thornburg has a knack for anticipating hot trends and getting educators excited about the future just around the corner. His presentations and countless books have inspired two genera- tions of teachers to use technology in a playful, deep, and constructive fashion.
3D printing and David fit each other like a hand and virtual reality glove. David is a renaissance man – part mathematician, part computer scientist, part engineer, part educator, part designer, part musician, part humorist, and full-time tinkerer.
My longtime colleagues in the Thornburg Center, Norma Thornburg and Sara Armstrong joined David in bringing this volume to life. They too have made indelible contributions to the field of education.
It seemed natural that Constructing Modern Knowledge Press would publish a book by David, Norma and Sara, which situates the 3D printing revolution in a classroom context. I commend you, brave pioneer, as you and your students design the future together.
— Gary Stager, PhD
Publisher, Constructing Modern Knowledge Press
©2014 Constructing Modern Knowledge Press - All rights reserved.
I’ve been thinking a lot about my friend, colleague, and mentor Dr. Seymour Papert a lot lately. Our new book, “Invent to Learn: Making, Tinkering, and Engineering in the Classroom,” is dedicated to him and we tried our best to give him the credit he deserves for predicting, inventing, or laying the foundation for much of what we now celebrate as “the maker movement.” The popularity of the book and my non-stop travel schedule to bring the ideas of constructionism to classrooms all over the world is testament to Seymour’s vision and evidence that it took much of the world decades to catch up.
Jazz and Logo are two of my favorite things in life. They both make me feel bigger than myself and nurture me. Jazz and Logo provide epistemological lenses through which I view the world and appreciate the highest potential of mankind. Like jazz, Logo has been pronounced dead since its inception, but I KNOW how good it is for kids. I KNOW how it makes them feel intelligent and creative. I KNOW that Logo-like activities hold the potential to change the course of schooling. That’s why I have been teaching it to children and their teachers in one form or another for almost 32 years.
I’ve been teaching a lot of Logo lately, particularly a relatively new version called Turtle Art. Turtle Art is a real throwback to the days of one turtle focused on turtle geometry, but the interface has been simplified to allow block-based programming and the images resulting from mathematical ideas can be quite beautiful works of art. (you can see some examples in the image gallery at Turtleart.org)
Turtle Art was created by Brian Silverman, Artemis Papert (Seymour’s daughter) and their friend Paula Bonta. Turtle Art itself is a work of art that allows learners of all ages to begin programming, creating, solving problems, and engaging in hard fun within seconds of seeing it for the first time. Since an MIT undergraduate in the late 1970s, Brian Silverman has made Papert’s ideas live in products that often exceeded Papert’s expectations.
There aren’t many software environments or activities of any sort that engage 3rd graders, 6th graders, 10th graders and adults equally as Turtle Art. I wrote another blog post a year or so ago about how I wish I had video of the first time I introduced Turtle Art to a class of 3rd graders. Their “math class” looked like a rugby scrum, there was moving, and wiggling, and pointing, and sharing and hugging and high-fiving everywhere while the kids were BEING mathematicians.
Yesterday, I taught a sixth grade class in Mumbai to use Turtle Art for the first time. They worked for 90-minutes straight. Any casual observer could see the kids wriggle their bodies to determine the right orientation of the turtle, assist their peers, show-off their creations, and occasionally shriek with delight in a reflexive fashion when the result of their program surprised them or confirmed their hypothesis. As usual, a wide range of mathematical ability and learning styles were on display. Some kids get lost in one idea and tune out the entire world. This behavior is not just reserved to the loner or A student. It is often the kid you least expect.
Yesterday, while the rest of the class was creating and then modifying elaborate Turtle Art programs I provided, one sixth grader went “off the grid” to program the turtle to draw a house. The house has a long and checkered past in Logo history. In the early days of Turtle Graphics, lots of kids put triangles on top of squares to draw a house. Papert used the example in his seminal book, “Mindstorms: Children, Computers, and Powerful Ideas,” and was then horrified to discover that “making houses” had become de-facto curriculum in classrooms the world over. From then on, Papert refrained from sharing screen shots to avoid others concluding that they were scripture.
It sure was nice to see a kid make a house spontaneously, just like two generations of kids have done with the turtle. It reminded me of what the great jazz saxophonist and composer Jimmy Heath said at Constructing Modern Knowledge last summer, “What was good IS good.”
Love is all you need
This morning, I taught sixty 10th graders for three hours. We spend the first 75 minutes or so programming in Turtle Art. Like the 6th graders, the 10th graders had never seen Turtle Art before. After Turtle Art, the kids could choose between experimenting with MaKey MaKeys, wearable computing, or Arduino programming. Seymour would have been delighted by the hard fun and engineering on display. I was trying to cram as many different experiences into a short period of time as possible so that the school’s teachers would have options to consider long after I leave.
After we divided into three work areas, something happened that Papert would have LOVED. He would have given speeches about this experience, written papers about it and chatted enthusiastically about it for months. Ninety minutes or so after everyone else had moved on to work with other materials, one young lady sat quietly by herself and continued programming in Turtle Art. She created many subprocedures in order to generate the image below.
Papert loved love and would have loved this expression of love created by “his turtle.” (Papert also loved wordplay and using terms like, “learning learning.” I’m sure he would be pleased with how many times I managed to use love in one sentence.) His life’s work was towards the creation of a Mathland where one could fall in love with mathematical thinking and become fluent in the same way a child born in France becomes fluent in French. Papert spoke often of creating a mathematics that children can love rather than wasting our energy teaching a math they hate. Papert was fond of saying, “Love is a better master than duty,” and delighted in having once submitted a proposal to the National Science Foundation with that title (it was rejected).
The fifteen or sixteen year old girl programming in Turtle Art for the first time could not possibly have been more intimately involved in the creation of her mathematical artifact. Her head, heart, body and soul were connected to her project.
The experience resonated with her and will stay with me forever. I sure wish my friend Seymour could have seen it.
Turtle Art is free for friends who ask for a copy, but is not open source. It’s educational efficacy is the result of a singular design vision unencumbered by a community adding features to the environment. Email email@example.com to request a copy for Mac, Windows or Linux.
I certainly sized the opportunity to pull no punches. I left no myth behind. Perhaps a few school business administrators will think differently about some of their decisions in the future.
A PDF of the article is linked below. I hope you enjoy the interview and share it widely!
Computationally-Rich Activities for the Construction of Mathematical Knowledge – No Squares Allowed
©1998 Gary S. Stager with Terry Cannings
This paper was published in the proceedings of the 1998 National Educational Computing Conference in San Diego
Based on a book chapter: Stager, G. S. (1997). Logo and Learning Mathematics-No Room for Squares. Logo: A Retrospective. D. L. Johnson and C. D. Maddux. Philadelphia, The Haworth Press: 153-169.
The NCTM Standards state that fifty percent of all mathematics has been invented since World War II. (National Council of Teachers of Mathematics, 1989) Few if any of these branches of mathematical inquiry have found their way into the K-12 curriculum. This is most unfortunate since topics such as number theory, chaos, topology, cellular automata and fractal geometry may appeal to students unsuccessful in traditional math classes. These new mathematical topics tend to be more contextual, visual, playful and fascinating than adding columns of numbers or factoring quadratic equations. Logo provides a powerful medium for rich mathematical explorations and problem solving while providing a context in which students may fall in love with the beauty of mathematics. The examples in this paper are intended to spark the imaginations of teachers and explore several mathematical areas ripe for Logo-based investigations.
While it may seem obvious to assert that computers are powerful computational devices, their impact on K-12 mathematics education has been minimal. (Suydam, 1990) More than a decade after microcomputers began entering schools, 84% of American tenth graders said they never used a computer in math class.(National Center for Educational Statistics, 1984) Computers provide a vehicle for “messing about” with mathematics in unprecedented learner-centered ways. “Whole language” is possible because we live in a world surrounded by words we can manipulate, analyze and combine in infinite ways. The same constructionist spirit is possible with “whole math” because of the computer. In rich Logo projects the computer becomes an object to think with – a partner in one’s thinking that mediates an ongoing conversation with self.
Many educators equate Logo with old-fashioned turtle graphics or suggest that Logo is for the youngest of children. Neither of these beliefs is true. Although traditional turtle graphics continues to be a rich laboratory in which students construct geometric knowledge, Logo is flexible enough to explore the entire mathematical spectrum. Logo continues to satisfy the claim that it has no threshold and no ceiling. (Harvey, 1982) Best of all, Logo provides a context in which children are motivated to solve problems and express themselves.
The National Council of Teachers of Mathematics Curriculum and Evaluation Standards for School Mathematics recognizes Logo as a software environment that can assist schools in meeting the goals for the improvement of mathematics education. In fact, Logo is the only computer software specifically named in the document.
The Goals of the NCTM (1984) Standards for All Students
- learn to value mathematics
- become confident in their ability to do mathematics
- become mathematical problem solvers
- learn to communicate mathematically
- learn to reason mathematically
The NCTM Standards state that fifty percent of all mathematics has been invented since World War II. (National Council of Teachers of Mathematics, 1989) Few if any of these branches of mathematical inquiry have found their way into the K-12 curriculum. This is most unfortunate since topics such as number theory, chaos, topology, cellular automata and fractal geometry may appeal to students unsuccessful in traditional math classes. These new mathematical topics tend to be more contextual, visual, playful and fascinating than adding columns of numbers or factoring quadratic equations. Logo provides a powerful medium for rich mathematical explorations and problem solving while providing a context in which students may fall in love with the beauty of mathematics.
Computer microworlds such as Logo turtle graphics and the topics of constructions and loci provide opportunities for a great deal of student involvement, In particular, the first two contexts serve as excellent vehicles for students to develop, compare and apply algorithms. (National Council of Teachers of Mathematics, 1989, p. 159)
The examples in this paper are intended to spark the imaginations of teachers and explore several mathematical areas ripe for Logo-based investigations. The project ideas use MicroWorlds, the latest generation of Logo software designed by Seymour Papert and Logo Computer Systems, Inc. MicroWorlds extends the Logo programming environment through the addition of an improved user interface, multiple turtles, buttons, text boxes, paint tools, multimedia objects, sliders and parallelism.
Parallelism allows the computer to perform more than one function at a time. Most computer-users have never experienced parallelism or the emergent problem solving strategies it affords. MicroWorlds makes this powerful computer science concept concrete and usable by five year-olds. The parallelism of MicroWorlds makes it possible to explore some mathematical and scientific phenomena for the first time. Parallelism also allows more conventional problems to be approached in new ways.
One source of inspiration for student Logo projects is commercial software. Progressive math educators have found software like The Geometric Supposer and the more robust Geometers’ Sketchpad to be useful tools for exploring Euclidian geometry and performing geometric constructions. I noticed that while teachers may use these tools as extremely flexible blackboards, kids can pull down a menu and request a perpendicular bisector to be drawn without any deeper understanding than if the problem was solved with pencil and paper.
Could middle or high school students design collaboratively their own such tools? If so, they would gain a more intimate understanding of the related math concepts because of the need to “teach” the computer to perform constructions and measurements. Throughout this process, teams of students are asked to brainstorm questions, share what they know and define paths for further inquiry. Students as young as seventh grade have developed their own geometry toolkits in MicroWorlds.
Much of learning mathematics involves naming actions and relationships. Logo programming enhances the construction of mathematical knowledge through the process of defining and debugging Logo procedures. The personal geometry toolkits designed by students are used to construct geometric knowledge and questions worthy of further investigation. As understanding emerges the tool can be enhanced in order to investigate more advanced problems.
At the beginning of this project students are given a few tool procedures to start with. These procedures are designed to:
- drop a point on the screen (each point is a turtle and in MicroWorlds every turtle knows where it is in space)
- compute the distance between two points
With these two sets of tool procedures students can create tools necessary for generating geometric constructions, measuring constructions and comparing figures. MicroWorlds’ paint tools may be used to color-in figures and to draw freehand shapes. The procedural nature of Logo allows for higher level functions to be built upon previous procedures. Figures 1a, 1b & 1c are screen shots of one student’s geometry toolkit.
Probability and Chance
Children use MicroWorlds to explore probability via traditional data collection problems involving coin or dice tosses and in projects of their own design. Logo’s easy to use RANDOM function appears in the video games, races, board games and sound effects of many students.
Perhaps the best use of probability I have encountered in a MicroWorlds project is in a project I like to call, “Sim-Middle Ages.” In this project a student satisfied the requirements for the unit on medieval life in a quite imaginative fashion. Her project allows the user to specify the number of plots of land, number of seeds to plant and the number of mouths to feed. MicroWorlds then randomly determines the amount of plague, pestilence, rainfall and rate of taxation to be encountered by the farmer.
On the next page there are two buttons. One button announces if you live or die in the middle ages and the other tells why, based on the user-determined and random variables. You may then go back and adjust any of the values in an attempt to survive. (figures 2a, 2b and 2c)
Things happen in the commercial simulations, but users often don’t understand the causality. In student-created simulations, students use mathematics in a very powerful way. They develop their own algorithms to model historical or scientific phenomena. This type of project can connect mathematics with history, economics, physical science and life science in very powerful ways.
“Number theory, at one time considered the purest of pure mathematics is simply the study of whole numbers, including prime numbers. This abstract field, once a playground for a few mathematicians fascinated by the curious properties of numbers, now has considerable practical value… in fields like cryptography.”(Peterson, 1988) Software environments, such as MicroWorlds, provide a concrete environment in which students may experiment with number theory. “Experimental math” projects benefit from Logo’s ability to control experiments, easily adjust a variable and collect data. Kids control all of the variables in an experiment and can swim around in the beaker with the molecules. Intellectual immersion in large pools of numbers is possible due to computer access. The scientific method comes alive through mathematical experimentation.
A fascinating experimental math problem to explore with students is known as the 3N problem. The problem is also known by several other names, including: Ulam’s conjecture, the Hailstone problem, the Syracuse problem, Kakutani’s problem, Hasse’s algorithm, and the Collatz problem. The 3N problem has a simple set of rules. Put a number in a “machine” (Logo procedure) and if it is even, cut in half – if it is odd, multiply it by 3 and add 1. Then put the new value back through the machine. For example, 5 becomes 16, 16 becomes 8, becomes 4, 4 becomes 2, 2 becomes 1, and 1 becomes 4. Mathematicians have observed that any number placed into the machine will eventually be reduced to a repeating pattern of 4…2…1…
While this is an interesting pattern, what can children explore? Well, it seems that some numbers take a long time to get to 4…2…1… I call each of the numbers that appear before 4, a “generation.” I often expose students to this problem by trying a few starting numbers and leading a discussion. Typing SHOW 3N 1 takes 1 generation to get to 4. Students may then predict that the number 2 will take two generations and they would be correct. They may then hypothesize that the number entered will equal the number of generations required to get to 4. However, 3N 3 takes 5 generations! I then ask, “how can we modify our hypothesis to save face or make it look like we were at least partially right?” Kids then suggest that the higher the number tried, the longer it will take to get to 4…2…1… They may even construct tables of the previous data and make numerous predictions for how the number 4 will behave only to find that 4 takes zero generations (for obvious reason that it is 4).
I then tell the class that they should find a number that takes a long time to get to 4…2…1… I do not specify what I mean by a “long time” in order to let the young mathematicians agree on their own limits. The notion of limits is a powerful mathematical concept which helps focus inquiry and provides the building blocks of calculus. Students often test huge numbers before realizing that they need to be more deliberate in their experimentation. The working definition of “long time” changes as the experiment continues. Eleven generations may seem like a long time until a group of kids test the number 27. Gasps and a chorus of wows can be heard when 27 takes 109 generations. Then I ask the class to tell me some of the characteristics of 27. Students often list some of the following hypotheses:
It’s 3 * 3 * 3 (an opportunity to introduce the concept of cubed numbers)
The sum of the digits = 9
The number is greater than 25
We then test each of the hypotheses and discard most of them. The cubed number hypothesis is worthy of further investigation. If we test the next cubed number, 4, with SHOW 3N 4 * 4 * 4 we find that it does not take long to get to 4. One student may suggest that only odd perfect cubes take a long time. I then suggest that the other students find a way to disprove this hypothesis by finding either an odd perfect cube that doesn’t take a long time or an even cube that does. Both exist.
to 3n :number
ifelse even? :number [3n :number / 2] [3n (:number * 3) + 1]
to even? :number
output 0 = remainder :number 2
A simple tool procedure may be added to count the number of generations for the “researcher.” The more you play with this problem, the more questions emerge. A bit more programming allows you to ask the computer to graph the experimental data or keep track of numbers that take longer than X generations to reach 4…2…1… Running such experiments overnight may lead to other interesting discoveries, like the numbers 54 and 55 each take 110 generations. What can adjacent numbers have in common? 108, 109 and 110 each take 111 generations. Could this pattern have something to do with place value? How could you find out? (see figures 4a & 4b)
The joy in this problem for kids and mathematicians is connected to the sense that every time you think you know something, it may be disproven. This playfulness can motivate students to view mathematics as a living discipline, not as columns of numbers on a worksheet. For many students, problems like 3N provide a first opportunity to think about the behavior of numbers. “For the most part, school math and science becomes the acquisition of facts that have been found by people who call themselves scientists.” (Goldenberg, 1993) Logo and experimental math provides another opportunity to provide children with authentic mathematical experiences.
Fractal Geometry and Chaos Theory
The contemporary fields of fractal geometry and chaos theory are the result of modern computation. Many learners find the visual nature of fractal geometry and the unpredictability of chaos fascinating. Logo’s turtle graphics and recursion make fractal explorations possible. The randomness, procedural nature and parallelism of MicroWorlds brings chaos theory within the reach of students.
Fractals are self-similar shapes with finite area and infinite perimeter. Fractals contain structures nested within one another with each smaller structure a miniature version of the larger form. Many natural forms can be represented as fractions, including ferns, mountains and coastlines.
Chaos theory suggests that systems governed by physical laws can undergo transitions to a highly irregular form of behavior. Although chaotic behavior appears random, it is governed by strict mathematical conditions. Chaos theory causes us to reexamine many of the ways in which we understand the world and predict natural phenomena. Two simple principles can be used to describe Chaos theory:
- From order (a predictable set of rules), chaos emerges.
- From a random set of rules, order emerges.
MicroWorlds may be used to explore both chaos and fractal geometry simultaneously. Figure 3shows two similar fractals called the Sierpinski Gasket. The fractal on the left is created by a complex recursive procedure. The fractal on the right is generated by a seemingly random algorithm discovered by Michael Barnsley of Georgia Institute of Technology. The Barnsley Fractal is created by placing three dots on the screen and then randomly choosing one of three points, going half way towards it and putting another dot. This process is repeated infinitely and a Sierpinski Gasket emerges. In fact, if you grab the turtle from the “chaos fractal” and move it somewhere else on the screen, it immediately finds its way back into the “triangle” and never leaves again. The multiple turtles and parallelism of MicroWorlds makes it possible to explore the two different ways of generating a similar fractal simultaneously. Experimental changes can always be made to the procedures and the results may be immediately observed.
One of the most attractive aspects of MicroWorlds is its ability to create animations. Students are excited by the ease with which they can create even complex animations. MicroWorlds animations require the same mathematical and reasoning skills as turtle graphics. The difference is that the turtle’s pen is up instead of down and the physics of motion comes into play. Multiple turtles and “flip-book” style animation enhance planning and sequencing skills. Even the youngest students use Cartesian coordinates and compass headings routinely when positioning turtles and drawing elaborate pictures.
Perhaps the best part of MicroWorlds animation is that the student-created animation and related mathematics are often employed in the service of interdisciplinary projects. Using animation to navigate a boat down the ancient Nile, simulate planetary orbits, design a video game or energize a book report provides a meaningful context for using and learning mathematics.
Functions and Variables
Logo’s procedural inputs and mathematical reporters give kids concrete practice with variables. Functions/reporters/operations are easy to create in MicroWorlds and can even be the input to another function. For example, the expression SHOW DOUBLE DOUBLE DOUBLE 5 or REPEAT DOUBLE 2 [fd DOUBLE DOUBLE 20 RT DOUBLE 45] are possible by writing a simple procedure, such as:
to double :number
output :number * 2
Many teachers are unaware of Logo’s ability to perform calculations (up through trigonometric functions) in the command center or in procedures. SHOW 3 * 17 typed in the command center will display 51 and REPEAT 8 [fd 50 rt 360 / 8] will properly draw an eight-sided regular polygon.
A favorite project I like to conduct with fifth and sixth graders creates a fraction calculator. First we decide to represent fractions as a (Logo) list containing a numerator and a denominator. Then we write procedures to report the numerator and denominator of a fraction. From there, the class can easily collaborate to write a procedure which adds two fractions. Some kids can even make the procedure add fractions with different denominators. From there, all of the standard fraction operations can be written as Logo procedures by groups of children. The next challenge the kids typically tackle is the subtraction of fractions.
One day, a fifth grader, Billy, made an interesting discovery while testing his subtraction “machine.” Billy typed, SHOW SUBTRACT [1 3] [2 3] (meaning 1/3 – 2/3), and -1 3 appeared in the command center. I noticed the negative fraction and mentioned that when I was in school we were taught that fractions had to be positive. Therefore, there is no such thing as a negative fraction.
Billy exclaimed, “Of course there is! The computer gave one to us!” This provoked a discussion about “garbage in – garbage out,” the importance of debugging and the need for conventions agreed upon by mathematicians and scientists. We even discussed the difference between symbols and numbers. Billy listened to this discussion impatiently and announced, “That’s ridiculous because I can give you an example of a negative fraction in real-life.”
Billy said, “I have a birthday cake divided into six slices and eight people arrive at my party. I’m short two sixths of a cake – negative 2/6!” He went on to say, “If the computer can give us a negative fraction and I can provide a real-life example of one, then there must be negative fractions.” The hazy memory of my math education diminished the confidence required to argue with this budding mathematician. Instead, I agreed to do some research.
I looked in mathematics dictionaries, but found more ambiguity than clarity. I also spent several weeks consulting with math teachers. Most of these people either dismissed the question of negative fractions as silly or complained that they lacked the time to adequately deal with Billy’s dilemma. After a bit more time, I ran into a university mathematician at a friend’s birthday party. Roger did not dismiss Billy’s question. Instead he asked for my email address. The next morning the following email message awaited me.
Date: Sun, 06 Nov 1994 09:52:44 -0400 (EDT)
It was fun to have a chat at Ihor’s party. This morning I got out my all time favorite source of information on things worthwhile, the Ninth Edition of the Encyclopedia Britannica. (With its articles by James Clerk Maxwell et al.) It is very clear. Fractions come about by dividing unity into parts, and are thus by definition positive.
Now what should a teacher tell Billy? In the past, you might hope that he forgot the matter. Today, Billy can post his discovery on the Internet and engage in serious conversation – perhaps even research with other mathematicians. Access to computers and software environments like MicroWorlds makes it possible for children to make discoveries that may be of interest to mathematicians and scientists. It is plausible that kids can contribute to the construction of knowledge deemed important by adults.
New Data Structures
MicroWorlds has two new data structures that contribute to mathematical learning. With the click of the mouse, sliders and text boxes can be dropped on the screen. As input devices, sliders are visual controls that adjust variables. Each slider has a name and a range of numbers assigned to it. Like a control on a mixing board the slider can be set to a number in that range. The slider’s value can then be sent to a turtle whose speed or orientation is linked to the value of the slider. The slider can also be used to set the values of variables used in a simulation.
Sliders may also be used as output devices. A procedure can change the value of a slider to indicate an experimental result. If a slider named, counter, is in a MicroWorlds project then the command, SETCOUNTER COUNTER + 1, can be used to display the results of incrementing the counter.
MicroWorlds text boxes also function as both input and output devices. A text box is like a little word processor drawn on the MicroWorlds page to hold text. Text boxes also have names that when evoked report their contents. If a user types the number 7 in a text box named FOO, then typing SHOW FOO * 3 will display 21 in the command center. FD FOO * 10 will move the turtle forward 70 steps. The command, SETFOO 123 will replace the contents of the text box, FOO, with 123. Therefore, text boxes may be used as experimental monitors or calculator displays. Constructing a garden-variety calculator with a text box and MicroWorlds buttons or turtles is deceptively simple, but provides one illustration of how text boxes could be used in a mathematical context.
A basic spreadsheet can be built in MicroWorlds with just one line of Logo code. If three text boxes are named, cell1, cell2 and total, then a button with the instruction, SETTOTAL CELL1 + CELL2, will put the sum of the first two cells in the third. Making the button run many times will cause the “spreadsheet” to perform automatic calculations. A bit more programming will allow you to check for calculation efforts, graph data or cause a turtle to change its behavior based on the result of a calculation. Building a model spreadsheet helps students understand how a commercial spreadsheet works, develop computation skills and add automatic calculation to their Logo toolbox.
Instructional Software Design
Children can use Logo as a design environment for teaching others mathematical concepts. Idit Harel’s award-winning research (Harel, 1991) and the subsequent research by her colleague, Yasmin Kafai (Kafai, 1995), demonstrated that when students were asked to design software (in LogoWriter or MicroWorlds) to teach other kids about “fractions” they gained a deeper understanding of fractions than children who were taught fractions and Logo in a traditional manner. These students also learn a great deal about design, Logo programming, communication, marketing and problem solving. Harel and Kafai have confirmed that children learn best by making connections and when actively engaged in constructing something meaningful. Their research provides additional evidence of Logo’s potential as an environment for the construction of mathematical knowledge.
Increased access to computers and imaginative teachers will open up an infinite world of possibilities for Logo learning. Software environments, such as MicroWorlds provide children with an intellectual laboratory and vehicle for self-expression. MicroWorlds inspires serendipitous connections to powerful mathematical ideas when drawing, creating animations, building mathematical tools or constructing simulations.
Excursions into the worlds of number theory, fractal geometry, chaos and probability rely on MicroWorlds’ ability to act as lab assistant and manager. Paul Goldenberg suggests that it is difficult to test out ideas unless one has a slave stupid enough not to help. (Goldenberg, 1993) The computer plays the role of lab assistant splendidly, yet the student still must do all of the thinking. MicroWorlds makes it possible to manage large bodies of data by running tedious experimental trials millions of times if necessary, collecting data and displaying it in numerical or graphical form. The procedural nature of MicroWorlds makes it possible to make small changes to an experiment without having to start from scratch.
MicroWorlds provides schools with a powerful software package flexible enough to grow with students. In days of tight school budgets it is practical to embrace a software environment with which students can address the demands of numerous subject areas. The sophistication with which students confront intellectual challenges improves along with their fluency in MicroWorlds.
Seymour Papert was horrified at how the simple example of commanding a turtle to draw a house, depicted in Mindstorms, became “official Logo curriculum” in classrooms around the world. However, providing students with a rich “mathland” in which to construct mathematical knowledge has always been one of the goals in the design and implementation of Logo. This paper attempts to provide simple examples of how MicroWorlds may be used to explore a number of mathematical concepts in a constructionist fashion. Those interested in additional ideas should read (Abelson & diSessa, 1981), (Cuoco, 1990), (Clayson, 1988), (Goldenberg & Feurzeig ,1987), (Lewis, 1990) and (Resnick, 1995). More detailed examples and teacher materials related to this paper are available on my World-Wide-Web site at: http://moon.pepperdine.edu/~gstager/home.html.
- Abelson, H., & diSessa, A. (1981). Turtle Geometry. Cambridge, MA: MIT Press.
- Clayson, J. (1988). Visual Modeling with Logo. Cambridge, MA: MIT Press.
- Clements, D.H. (1991). Logo in Mathematics Education: Effects and Efficacy. Stevens Institute of Technology Conference Proceedings – Computer Integration in Pre-College Mathematics Education: Current Status and Future Possibilities, April 24, 1991. Hoboken, NJ: Stevens Institute of Technology/CIESE.
- Cuoco, A. (1990). Investigations in Algebra. Cambridge, MA: MIT Press.
- Goldenberg, E.P. (1993). Linguistics, Science, and Mathematics for Pre-college Students: A Computational Modeling Approach.Revised from Proceedings, NECC ‘89 National Educational Computing Conference, Boston, MA. June 20-22, pp. 87 -93. Newton, MA: Educational Development Center.
- Goldenberg, E.P. (1989). “Seeing Beauty in Mathematics: Using Fractal Geometry to Build a Spirit of Mathematical Inquiry.” Journal of Mathematical Behavior, Volume 8. pages 169-204.
- Goldenberg, E.P., & Feurzeig, W. (1987). Exploring Language with Logo Cambridge, MA: MIT Press.
- Harel, I. (1991). Children Designers: Interdisciplinary Constructions for Learning and Knowing Mathematics in a Computer-Rich School. Norwood, NJ: Ablex Publishing Corporation.
- Harel, I. & Papert, S. (editors) (1991). Constructionism. Norwood, NJ: Ablex Publishing Corporation.
- Harvey, B. (1982). Why Logo? Byte, Vol. 7, No.8, August 1982, 163-193.
- Harvey, B. (1985-87). Computer Science Logo Style, Volumes 1-3. Cambridge, MA: MIT Press.
- Kafai, Y. (1995) Minds in Play – Computer Design as a Context for Children’s Learning. Hillsdale, NJ: Lawrence Erlbaum and Associates.
- Lewis, P. (1990). Approaching Precalculus Mathematics Discretely. Cambridge, MA: MIT Press.
- National Council of Teachers of Mathematics. (1989). Curriculum and Evaluation Standards for School Mathematics. Reston, VA: NCTM.
- Papert, S. (1980). Mindstorms: Children, Computers, and Powerful Ideas. (Second Edition, 1993) New York: Basic Books.
- Peterson, I. (1988). The Mathematical Tourist – Snapshots of Modern Mathematics. NY: W.H. Freeman and Company.
- Poundstone, W. (1985). The Recursive Universe… Chicago: Contemporary Books.
- Resnick, M. (1995). Turtles, Termites and Traffic Jams – Explorations in Massively Powerful MicroWorlds. Cambridge, MA: MIT Press.
- Silverman, B. (1987). The Phantom Fishtank: An Ecology of Mind. Montreal: Logo Computer Systems, Inc. (book with software for Apple II or MS-DOS)
- Stager, G. (October, 1988). “A Microful of Monkeys.” The Logo Exchange .
- Stager, G. (1990). “Developing Scientific Thought in a Logo-based Environment.” Proceedings of the World Conference on Computers in Education. Sydney, Australia: IFIP.
- Stager, G. (1991). “Becoming a Scientist in a Logo-based Environment.” Proceedings of the Fifth International Logo Conference. San José, Costa Rica: Fundacion Omar Dengo.
- Suydam, M. N. (1990). Curriculum and Evaluation Standards for Mathematics Education. (ERIC/SMEAC Mathematics Education Digest No. 1, 1990) Columbus, OH: ERIC Clearinghouse for Science, Mathematics and Environmental Education. (ERIC Document Reproduction Service No. ED319630 90).
Few authors, activists, intellectuals or teachers move me like Jonathan Kozol. For nearly a half century, Kozol has given voice to the optimistic, playful, scared, sad and hungry children in our society. He spends time with the children most of us never think about and confronts us with our spiritual beliefs and the policies that most acutely affect the least of us in society. To meet a man with the greatness, humility, decency and literary genius of Kozol would be a miracle. To be able to work with him is a rare gift. To have him introduce me at Constructing Modern Knowledge 2011 as “one of my oldest friends in education” was a blessing I will never forget. Watch his CMK11 talk.
After far too long of a hiatus, Jonathan’s latest book, “Fire in the Ashes: Twenty-Five Years Among the Poorest Children in America,” is out today! I have read the galleys and the book is riveting, profound, tragic, hopeful and beautifully written. You should read it AND buy a copy for a friend or colleague. Click to buy from Amazon.com.
This school year, Constructing Modern Knowledge will expand beyond its unique summer institute (July 9-12, 2013 – Manchester, NH) to offer some exciting new learning opportunities for learners and parents. The first event by Constructing Modern Knowledge Productions is in collaboration with my colleagues at the Willows Community School in Culver City, California.
On September 10th at 7:00 PM, The Willows Community School will host An Evening with Jonathan Kozol, Acclaimed Author and Educational Activist. Due to the generosity and public mindedness of the school, the event is free and open to the public! Reservations are required via the web site.
At this event, Kozol will speak and sign his new book, Fire in the Ashes: Twenty-Five Years Among the Poorest Children in America. I hope you will join us for this very special evening!
A funny thing happened on the way to writing this article. I realized I had already published it one year ago. Senseless Acts of Homework in The Huffington Post describes my contempt for the loathsome practice of summer homework.
However, this summer, my nephew’s high school cranked the stupid dial up to 11.
I am against homework for lots of reasons.
- The public equates it with education
- Kids hate it
- It encroaches on a student’s private life
- It is coercive
- It is too often busy-work provided by a textbook company who knows nothing about the learner
- It wastes class time when kids swap papers and grade homework; a tedious process that leads to zero benefit for learners
In the face of a glaring absence of evidence, teachers argue that homework is used for practice or reinforcement. (I’ll save how this is a misinterpretation of “practice” for anther day) If homework is for skill development then every student should have different homework each night, right?
Nah, one-size-fits-all kids!
If there was a shred of evidence that homework was good for kids or had anything to do with learning, I would be sympathetic. However, the crazy train has now gone one station beyond forcing kids to do something they hate, that makes them hate school and that robs them of free time.
If homework is intended for reinforcement, how does one possibly justify assigning homework to students during the summer before they set foot in your class? Let me say that again. Schools are giving homework to kids before they start a course!
This is personal
Three years ago, my nephew became fascinated by genealogy and has spent a great deal of time since researching our family history. He has done a remarkable job with the Ancestry.com account I pay $30/month for, has reached out to experts and fellow researchers across the globe in grammatically perfect email messages and has developed sophisticated habits of mind. I’ve long since given up hope that schools (and teachers) at most schools (The Big Picture Schools are an exception) will take notice of student interests, connect with them and provide the intellectual support to go farther than they could have gone on their own.
Kids don’t receive credit for what they are passionate about and school rarely values outside activities, except for assigned homework. I would love for my nephew’s teachers to respect his genealogical research, but it would be even better if they helped him learn what he needs to know in order to be a better historian.
My nephew’s school district does just about everything wrong – endless test prep, tracking, “honors” classes and mountains of homework.
When I realized how serious the kid was about genealogy, I promised to take him to places he learns our family is from. So, I am writing from a hotel lobby in L’Viv, Ukraine. We spent the day touring Zboriv, Ternopil and Zolochow, the villages where the learned that 3/4 of my ancestors came from. My nephew’s clue that that my great great great grandfather owned a mill in Zboriv led us to a small museum where an old historian said that there was a large mill that provided flour for the Austria-Hungarian empire down along the Strypa River. Our guide was our translator and took us to stand on the spot where my ancestors worked and fire killed their young daughter. We walked through the remaining disheveled Jewish cemeteries, visited too many monuments marking the sites of World War II exterminations, ate Ukranian food and learned about the Zboriv battle of 1649. We discussed Eastern European politics, Soviet occupation and US politics. Our guide and driver was Alex Dunai, one of the world’s experts on Jewish life in Galicia and invaluable researcher for Daniel Mendelsohn’s magnificent book. “The Lost – A Search for Six of Six Million.”
Tomorrow night we head to Krakow and Auschwitz, followed by Vilnius, Lithuania before we rush back to the USA so the kid won’t miss a day of school. Prior to this, we spent two days in London, where we saw pieces of the Parthenon at the British Museum, and five in Athens where we went to the Acropolis, Acropolis Museum and Temple of Poseidon. The kid spent a bit of time hanging out at the Constructionism Conference where I presented a paper. My nephew not only had the opportunity to attend a SNAP! programming workshop led by Dr. Brian Harvey, but had dinner with linguists, mathematicians, computer scientists, master educators and with friends of mine who worked with Jean Piaget, Paolo Friere and Seymour Papert. He got to see his uncle speak, watch really smart people argue passionately in a civil fashion and share his work with interested adults.
Sounds good, right? The only problem is the kid has been in a hotel room trying to guess how to respond to open-ended homework prompts from teachers he hasn’t met? Did the teachers spend their summer working an unpaid second shift like my nephew did? Why did we have to schlepp a backpack full of school shit (the technical term) half-way around the world?
Before anyone says, “not every kid has an uncle who does such cool things with his nephew,” I’ll respond by saying that I would rather a kid play basketball, take a trumpet lesson, swim, go to summer camp, read for pleasure or just watch television then memorize a chapter in a science textbook before any science occurs.
I don’t know any nicer way of saying this, but preemptive summer homework seems a lot like a clear case of an abuse victim battering an even less powerful subordinate. This cycle of insanity has to end.
Defend preemptive summer homework! C’mon! I dare you!
Here is the article I published last year…
I’m a big fan of summer. I still have the same “back-to-school” nightmares I experienced as a kid as the days get shorter each August. I think that “Back-to-School” sales before Independence Day are a form of child abuse. I believe that casual neighborhood play, family vacations, scouting and organized camps produce powerful learning experiences unrivaled by school.
When I hire new teachers, I look for people who worked at a summer camp. These are teachers who love kids and know how to engage them in meaningful (and fun) activities without coercion or a scripted curriculum. In 2007, I took issue with then Senator Clinton’s call for more tutoring and suggested that the federal money allocated for tutoring children in “underperforming schools” be spent on summer camp (My Plan to Fix NCLB). The richest nation in the world can afford high-quality summer activities for even its poorest children.
Also in 2007, I published When the Jumbotron says, “Read,” You Read! That article addressed the folly of forced summer reading assigned by schools, the outlandish claims made on behalf of the practice and the punishments meted out for non-compliance. I marveled at the quality of books assigned as summer reading when compared with the standardized drivel “read” during the school year and mourned the absence of meaningful discussion accompanying the reading.
When I was a kid, the only time you heard the combination of the words, “summer” and “school” was if you misbehaved or failed a course during the school year. How I long for the good ol’ days.
Just when I think that schooling can not get any more punitive or heavy-handed, things get worse. Schools no longer feel constrained by the impulse to ask kids to read Homer Price, Holes or Because of Winn-Dixie for pleasure under a tree on a balmy summer day. Now, school leaders view children as their serfs and every waking minute of a child’s life as their property. Such megalomania may be rooted in the paranoia created by the testing uber-alles policies of NCLB and Race To The Top. Whatever the motivation, robbing children of summer is irresponsible, ineffective and malicious.
Wow! Those are strong words, Dr. Stager. What are you talking about?
My “niece,” let’s call her “Miss Summer,” just completed eighth grade in a Northern New Jersey public school district. Miss Summer is an excellent student with perfect attendance and a great many interests she looks forward to pursuing during the summer. They include swimming, playing with her brother, developing friendships, practicing the trumpet, fishing, genealogy, reading and doing nothing at all but staying in her pajamas on rainy days and watching cartoons. When I was a kid, our society valued those activities and embraced childhood. That is no longer the case.
At the end of eighth grade, Miss Summer received a substantial packet of work to be completed before she sets foot in her new high school. The transition from primary to secondary school is stressful enough, but now a mountain of homework hung over a carefree summer like a rain cloud ruining your beach vacation. Miss Summer’s school district is no longer content with suggested summer reading for parents interested in supplementing a child’s education. Hell no!
Miss Summer has assignments in nearly every subject, is expected to read Dickens’ Great Expectations alone and without teacher support, write a thesis or two and submit the work by assigned due dates via a Web-based plagiarism site, Turnitin.com.
This mountain of homework is not only cruel, it is irresponsible, miseducative and profoundly unfair for the following reasons.
- Miss Summer has not met any of the teachers this work is being submitted to. She neither knows their personalities, values or expectations.
- Great Expectations is pretty heavy for a fourteen year-old without teacher assistance or classroom discussion. Will it inspire or hinder a greater interest in English literature?
- Thesis writing has not yet been taught and is unnecessarily anxiety producing for a kid who has yet to enter your school for the first time.
- Three is an assumption made by the school district that every student knows how to use the specialized web site and has sufficient computer access to complete and submit assignments.
- Due dates assume that children have no plans for the summer. Should camp or family vacations be ruined by these deadlines? Should a student take a laptop and satellite modem on a hike?
- The same impulses to assign massive amounts of homework to students you’ve never met predicts that there will be little follow-up of that work when students return to school.
- These practices are coercive, intrude upon families and seek to overrule parental decisions.
- You are ruining kids’ summer!
I do everything I can to combat to the misguided federal education policies turning schools into joyless test-prep factories. I’ll march. I’ll write. I’ll speak out. I’ll organize. I’ll donate. I’ll provide educators with alternative strategies and help them improve their practice. I will challenge the plutocrats who threaten teachers and children.
What I will not do is defend educators who transfer their misery to innocent children. It is unconscionable for teachers to outsource their corpulent curriculum to children. You have no right to surveillance when a child is at home. If kids cannot count on you to stand between them and madness, who will protect them?
For more arguments against homework, read Alfie Kohn’s book, The Homework Myth: Why Our Kids Get Too Much of a Bad Thing or watch his DVD, No Grades + No Homework = Better Learning.
I bought my first modem and Compuserve account in 1982 or 83 and was connecting via acoustic coupler to Timeshare systems several years before that. The first online conference I participated in was in late 1985 or early 1986 and I was creating online projects for kids a couple of years later.
During the summer of 1997, I suggested to Pepperdine University Graduate School of Education and Psychology Associate Dean, the late great Dr. Terry Cannings, that Pepperdine offer our MA in Educational Technology entirely online. If memory serves, Dr. Cannings called me a charlatan.
The university had already embraced a 60% online/40% face-to-face format for it’s edtech doctoral program and was experimenting with other hybrid models, but in mid-1997, Cannings thought that entirely online was a bridge too far.
Around Christmas of that year, Dr. Cannings called me into his office and asked, “Can we discuss that online Masters idea again in January?” A meeting was scheduled at the end of January on the Malibu (main campus) to pitch the idea to the Dean. (much hilarity ensued) I created the attached proposal as a basis for discussion.
To put things in a historical perspective, this proposal was written the month the Lewinsky scandal broke and before anyone had heard of Ken Starr (former Dean of the Pepperdine Law School)
I’m sorry that I can’t locate the cheesy “clip-art-rich” cover page attached to the document I printed at 3 AM on my kids’ DayGlo colored printer paper, but remarkably my Mac was just able to open the original documents in Appleworks 6 and print a PDF version to share with you. There is crappy clip-art included in the body of the document.
The Dean listened politely to Dr. Cannings, Dr. McManus, Dr. Polin and myself and asked when we proposed to start this new program? We replied, “this Spring.” She nervously smiled and sent us on our our merry way. After all, universities move at a glacial pace, right?
The Online Master of Arts in Educational Technology (called OMAET, OMET & MALT over the years) was fully accredited by the end of May and our first cadre of students was on campus for what became known as VirtCamp early that July. There are lots of stories about that first Virtcamp, but I won’t share them here.
My hard drive also contains a copy of the accreditation proposal Dr. McManus and I wrote for WASC (the accrediting body), but I am not sure if it would be proper to share that document publicly (I’ll await a more informed opinion).
The reason for all of this nostalgia is that the 15th cadre of students in that program arrive for Virtcamp this week and are being greeted by an alumni-organized reunion of former students, all to mark the 15th anniversary of the program.
Regrettably, after eighteen years of teaching as an adjunct and full-time Visiting Professor at Pepperdine, I no longer feel welcome on campus. So, I’m going to sit out this week’s activities. However, I hope those students and the rest of my friends in the Blagosphere (Rod Blagojevich is also a Pepperdine alumnus) enjoy this documentary stroll down memory lane.
I think we got a good deal right in trying to create a constructionist collaborative learning environment online before PLNs, PLCs or social networking existed.
Happy Anniversary to all former and future OMAET/OMET/MALT students! I’m proud of you!
Other files found on my hard drive:
- An incredibly crappy 3-fold brochure promoting the Online Masters program
- A one-page flyer advertising the new program (further evidence of my design prowess)
- A document outlining the advantages of pursuing a degree online
- Suggested texts for the new program (1998). I suspect that colleagues contributed, but I honestly cannot remember. Many of the books may have been in use during traditional courses.
An old friend of mine, Dr. Barry Newell, is an astrophysicist who was was the Administrator (in the NASA sense) of Mount Stromlo and Siding Spring Observatories of the Australian National University. He now works on the dynamics of social-ecological systems. In his spare time (back in 1988), he wrote two classic books on Logo programming and mathematics, Turtle Confusion and the accompanying book for educators, Turtles Speak Mathematics. Turtle Confusion features 40 challenging turtle geometry puzzles in a mystery format and Turtles Speak Mathematics helps educators understand the mathematics their students are learning.
I was reminded of the books when Sugar Labs, the folks behind the operating system for the One Laptop Per Child XO laptop, featured the challenges as an activity to accompany TurtleArt software on the XO.
These books are best used with versions of Logo such as MicroWorlds EX or Berkeley Logo. Some of the puzzles are very difficult or impossible to solve in Scratch, but it’s worth trying if that is all you have. SNAP! is another potential option. TurtleArt is another possibility. Although, mathematical programming is often easiest and best achieved through the use of textual language (IMHO). A bit of dialect translation might be necessary. For example, CS is often CG (in MicroWorlds EX).
In 1990, I had the great opportunity to lead professional development at the world’s first “laptop” schools. Australia’s Methodist Ladies’ College and Coombabah State Primary School were the first schools anywhere to embrace 1:1 computing. MLC is a large independent school that committed to 1:1 computing in 1989. Coombabah is a public school and often overlooked for its place in edtech history. The efforts of the teachers at both schools changed the world and I am enormously proud to have played a major role in that effort.
In the early 1990s, I spent months working at MLC, and then numerous other schools eager to embrace 1:1 and the constructionist principles demonstrated by this pioneering school. In 1993, the MLC faculty and principal wrote a book to share their expertise, philosophy and wisdom with educators in other schools. I hope you find the nearly twenty year-old learning stories, recommendations and tips useful to you. I especially call your attention to the audacity of embracing 1:1 computing more than 20 years ago and the fact that laptops were a way of bringing Papertian constructionism to life.
The book, Reflections of a Learning Community: Views on the Introduction of Laptops at Mlc by Methodist Ladies’ College is long out-of-print and sadly removed from the Web where it resided for several years. As a public service to researchers, educators and historians (and with the help of the Wayback Machine) I am able to share the complete book here. Check out how hip the title of this book is for 1993, since “learning community” has just became all the rage twenty years later!
With any luck (and lots of effort) I will soon be able to publish the first doctoral dissertation evaluating the efficacy of 1:1 computing, originally published in 1992!
You should also read Bob Johnstone’s history of educational computing up to and including the early days of innovation at MLC, Never Mind the Laptops: Kids, Computers, and the Transformation of Learning!
The chapters marked by an * indicate that the text describes some of my specific work at MLC.
Reflections of a Learning Community:
Views on the Introduction of Laptops at MLC
Section one: Computing at MLC
- Reconstructing an Australian School by David Loader, Principal at MLC
- The Promises of Educational Technology by Margaret Fallshaw, Computing Consultant, MLC
- The Audacity of Sunrise by David Loader, Principal at MLC
- A Laptop Revolution An interview with Pam Dettman, Head of Junior School
- Educational Computing: Resourcing the Future by by David Loader, Principal, MLC & Liddy Nevile, Senior Lecturer RMIT.
- A Practitioner’s Viewpoint by Maggie James, JSS (junior secondary school, grades 7-8) History Co-ordinator
- Computers for Kids ..Not Schools by Gary S. Stager *
- Initial Research Report by Helen McDonald
- A Technology School for the Future: A Proposal by Ruth Baker, Jeff Burn and Di Fleming
- Design and Technology: The Next Challenge by Ruth Baker, Head of Junior Secondary School, 20.9.1992
- Using Laptops in Schools: The Administrative Implications by Margaret Fallshaw, Computing Consultant, MLC
- Learning with Laptops: Who Pays? by Roger Dedman, Director of Finance, MLC
- Junior School Computing Curriculum by Steve Costa, Deputy Head, MLC Junior School (K-6)
- Computing and the New Teacher by Alison Brown, Teacher, MLC Junior School
- Holiday Program by Alison Brown, Teacher, MLC Junior School *
- Professional Development at MLC:Requirements for Teachers by David Loader, Principal, MLC
- Computer Pathways: A Model for Change by Di Fleming, Head of Middle School
- MLC Community Education and Technological Developments by Joan Taylor, Head of Community Education MLC
- An Elaborate Pyjama Party by Alison Brown, Teacher, MLC Junior School *
- Teacher Change: Philosophy & Technology by Helen McDonald, secondary English teacher & PhD. student from Monash University *
- Staff Development by Pam Dettman, Head of Junior School, MLC
Section 3 : Appendix
- MLC College Computing Policy
- A Constructionist Environment by Jeff Burn, Di Fleming & Margaret Fallshaw