Interactive
Mathematics on the
Internet
In recent years,
anincreasing number of web sites have offered
significant opportunities forstudent to learn
online, often through the use of Java applets.
You can hereexplore some good examples of this
genre of material that are publiclyavailable, to
consider their potential for mathematics
learning.
A thorough
examination of the examples below will take many
hours, andso will not be possible in a workshop
of an hour or two. You will need to be
If you are in a
workshop in a computer laboratory,
1. Work with a
partner,either sharing a computer or working
side by side on separate computers.Discuss what
you see.
2. Using the
briefdescription as a guide, choose a site below
that is (relatively) unfamiliar toyou and
matches one of your interests. The year levels
suggested
areapproximate.
3. Read the
suggestionsbefore accessing the site, so that
you know what to look for and what to
do.
4. Once on the
site,explore a couple of examples, to get a
sense of what might be offered tostudents that
is not usually accessible to
them:
Howcould these
applets be used by your students: at school? At
home?
Howcould the applets
be used by a teacher: for demonstration? on an
interactivewhiteboard? for class discussion? for
ideas?
5. Repeats steps 2 to
4 tochoose a range of sites, in order to see a
range of possibilities andeducational
styles.
| Level | Website | Suggestions |
| 3-12 | National
Library of Virtual
Manipulatives A large and very
impressive collection of applets, with
substantial support provided for teachers and
parents. Linked to the NCTM
Standards. Can be purchased separately as a
CD-ROM, avoiding the need for Internet
access. | Click
on Virtual
Library to access a grid of content by
level. Choose an element of the grid and then
choose an applet to explore. (You can choose an
age level or a content band instead if you
prefer. Be careful: the grade levels provided are
not very reliable.) Icons at the top of each
applet offer suitable activities and
instructions. Use the Back icon to return. For
example, try Platonic
Solids in geometry 9-12 to see a 3-D
version. |
| 5-8 | A large collection
of well-designed applets, also keyed to the NCTM
Standards, mostly aimed at middle school
level, but many of which are also potentially
valuable for older students too. Excellent
support materials for teachers are
included. | Click on the Activities
hexagon to access a complete list. Each Activity
has a What? How? And Why? Link to help, if
needed. [A great deal of help is provided, but
this workshop doesnít suit a close scrutiny of
this today.] Choose a range to suit your
interests. Some of my favourites are Histogram,
Transmographer,
Area
Explorer and Fire!!
|
| 5-12 |
This large UK site
based at Cambridge University contains many
different kinds of resources for both students
and teachers, including interactive resources.
You will need to have a Flash player or Java in
order to use most of these. Instructions for
this are given on the site itself via the Help
link on the left. A good overview of the site
overall is available at the tour,
which deals with much more than just
interactive elements. | Interactive
resources appear in many places on this site,
and can also be found by using a search
command. The site uses the term ëinteractivityí
to refer to interactive resources. A nice
example to try is the virtual
geoboard, which can be configured in
various ways and elastic bands easily used.
There are several probability
examples, including some using the wonderful DIME
recording sheet. A substantial set of resources
is available here
as a result of a search using interactivity.
Choose some of these in your areas of
interest. |
| 5-10 | This small collection
of games from BBC TVís Maths File has a variety
focussing on various aspects of Number,
Algebra, Data and Measurement, focussed on the UK
curriculum. Your browser needs to have
Shockwave installed. (There is a download link
if necessary). The games are nicely produced,
with an undertone of British humour (eg when a
ëprizeí is won.) Advice is offered for teachers,
and some activity sheets for students are
provided too. | Many of these games
would work quite well on an interactive
whiteboard, although they could also be used by
individual students. Click Hypatia or Pythagoras
to spin the wheel. To get a feel for the style,
try Builder
Ted, which is concerned with ordering
decimals, or Bathroom
Tiles, which involves transformations in the
plane, or Train
Race, which is concerned with using and
interpreting means and medians.
|
| 8-12 | Walter Fendt has
compiled a number of Java applets related to
secondary school mathematics, in several
languages as well as his native German. The
English language applets offer interesting ways
of interacting with mathematical ideas across a
range of topics, especially geometry topics,
and are designed for direct use by
students. | To explore this
site, choose some applets in an area of your
interest. While the applets are a little old
now, they still offer useful opportunities for
students and demonstration opportunities for
teachers. Note that the suite of applets can be
downloaded for use in your own classroom, so that
they can be used when Internet access is
problematic. (Donít do this if you are in a
computer laboratory, unless it is your
own.) |
| 9-12 |
David Joyce has
created this interactive online version of the
most successful mathematics text in history,
including all 13 books. Worth including here,
even if Euclid has faded from many of our
curricula! | Thereís too much here
to deal with in detail, of course. I suggest
going to the Table
of Contents and looking at some of the
Quick Trip, such as Book I Proposition 47.
Dragging coloured points allows you to see
Euclidís work come
alive. |
| 7-13 |
This British site
contains a large number of well-designed Java
applets across a range of areas of mathematics.
These are arranged in two groups: for ages 11-16
and ages 16-19. Applets are designed for
students to be able to use by themselves, so
that onscreen icons are
useful. | There are many
small, single-purpose applets, which would be
useful to use on an interactive whiteboard for
whole class teaching, while some are best suited
to individual use. Try Reflections,
Algebraic
long division or Positive
and negative numbers to see a range of
interesting examples. Instructions are helpful
and easy to find through the icons, usually
starting with the i
icon at the top. |
| 7-12 | An entry into the
encyclopaedic MathWorld site, powered by Mathematica.
Although much of this site assumes very
significant mathematical background, it is
still worth a look. The Platonic solids are
nicely represented, and can be rotated various
ways using the mouse. The Wolfram Demonstrations
Project (below) also uses Mathematica. | After using the mouse
to have a good look at the Platonic solids,
including some of the links to individual
solids down the page a bit, select Live
3D Graphics from the left column to access
the extraordinary collection of mathematical
objects, or use either the search engine or links
at the left to explore this entire site. Donít
spend too long here for now Ö the idea is just
to see what is now possible and available on the
web. Much of what is on this site is not
interactive. |
| 6-12 | This
is a website of the Freudenthal Institute for
secondary education (students of 12 to 18 years
old) in the Netherlands. The main focus of the
site is a collection of Java applets, developed
and studied by FI staff. Some of these applets
are in English; many are very interesting and
offer environments for pupils to explore
ideas. | Select the applets
link on the opening page. Then show the applets
after selecting Abstract to get some
instructions Most of these applets are small and
come with minimal instructions, yet some are
likely to be quite engaging by students or by a
class, especially the 3-D applets. For example,
try Building houses, Impossible
object
or Cut-Outs, Nets. Each applet has an
About link at the top, which gives (minimal)
information. |
| 7-12 | This website contains
a very large collection of interactive
activities created by the idiosyncratic
Alexander Bogomolny to highlight elegant and
powerful features of mathematics. Many
aspects of secondary school mathematics are
involved as well as many mathematical elements
that are not part of the school curriculum.
| As CTK is a very
extensive collection of several hundred applets,
no choices will be ëtypicalí. Equations
of the straight line, Riemann
Sums and Polygonal
Numbers illustrate three different
possibilities, but you will find many others
with other selections. To see the philosophy
underpinning the collection, read the authorís
manifesto,
which is also accessible on each applet
page. |
| 9-12 | This excellent
Austrian website offers many Java applets that
have been thoughtfully constructed to offer
sound educational experiences for students
learning mathematics, mostly at the senior end
of secondary school. The site contains a good
collection, together with other useful advice
on using them and information about their
development. | Start with the
Gallery, which houses the collection. Try Analytical
geometry 1, for example, which contains three
different applets. For each applet, make sure
that you read the Exercises and the Didactical
Background to see the thinking employed in
constructing them. You may then like to explore
some other examples or to try an interactive
test, some of which (like this one on derivatives)
are in the form of
puzzles. |
| 9-12 | David Eckís
pioneering work was freely available for many
years, and has now been rewritten as a Java
applet, available for free download. Various
aspects of graphing functions are involved,
including differential and integral calculus.
(See also the JCM link below to see how these
ideas here were extended.) | Go to the Launch
xFunctions button a little way down the
page to get a sizable version. xFunctions
is a suite of programs, not just a graphing
package. Instead of the Main Screen, try the
Animation Utility, Derivatives Utility and
Riemann Sums Utility to see the opportunities
provided to students to explore the
mathematical ideas involved. Lots of detailed
help with the applet is provided on the page,
but there wonít be time to explore this in depth
in the workshop. |
| 9-12 |
Loci was previously The Journal
of Online Mathematics and its Applications,
a major publication of the MAA over the past
few years and a fertile ground for thinking about
and discussing the role of interactive
multimedia in learning mathematics. While a lot
of the material is focussed on undergraduate
mathematics, there are still interesting ideas
here relevant to senior secondary school. Reviews
or work using multimedia and interesting
conversations about work in progress are located
on the site. | The MAA Mathematical
Sciences Digital Library (MathDL) offers a new
environment for teachers and authors to
consider together the educational prospects for
multimedia on the web. The articles refer to
educational use of the multimedia applets (mathlets)
and frequently contain good practical advice
about using them, from teachers and developers.
A quick browse of the Resources
will give you a sense of the material. Free
materials are available (as for JCM below),
often requiring very little (but some) HTML
expertise to install. An example of this
process is shown here,
using a Dice applet referred to in a recent article.
|
| 9-12 | Java
Components for
Mathematics This website reports
the work of the JCM project, an outgrowth of
the work of David Eck, author of xFunctions.
The project has produced Java components that
can be freely adapted for teaching purposes, and
this website offers a good deal of help in
showing users how to do the adaptation. With
only a minimal knowledge of HTML, mathematics
teachers can use these components for their own
purposes. | This site provides a
good deal of practical help for beginners,
although a little knowledge of HTML will be
needed in order to take advantage of it. In order
to use the components provided, you will also
need to download the JAR file and store it on
your website or computer to be accessed by the
applets created. (A big advantage of this is
that you can use the applets on a computer
without web access.) There is an example here of an elementary
use of the EpsilonDelta
applet, essentially comprising the text copied
from the JCM website and pasted into a text
file constructed using a basic text editor. There
is a small amount of extra text (all of which
can be seen by viewing the Source of the
page.) |
| 9-12 | Dynamic
Geometry Both Cabri
Geometry and Geometerís
Sketchpad provide a mechanism for users to
easily create their own dynamic geometry Java
applets. The outstanding Geogebra
software is available online and can also be
downloaded to your computer for
free. | There are some
rudimentary examples of applets from Cabri
and Geometerís
Sketchpad in use here,
together with links to the software
manufacturersí pages, explaining the process in
some more detail. Try perpendicular
bisectors, for example. The Geogebra site
will need a lot of time to explore adequately,
but is well worth while. |
| 6-10 | The TLF is an agency
of various Australian governments, sponsoring
the development of a large number of multimedia
and online earning objects for Australian
schools. Many of the objects are for younger
pupils, but the brief extends from K-10, so there
are examples for older pupils
too. | Explore the site to
find out what the TLF is doing in your state,
as well as other information about how it
works. Use the Access
Information link at left to find out more
local details: select Schools to
do this. There are some sample objects at the
link provided here, but you canít actually use the
entire set of objects from this site. The
entire mathematics and numeracy catalogue is
accessible as a (large) download from the
web. |
| K-12 |
MathTools is a
Digital Library of maths resources compiled by
the Math Forum to help teachers teach and
students learn in K-12 mathematics. The site has
two major features: a catalog of software and a
discussion forum. Above all else, MathTools is a
community of users that includes students,
teachers, mathematicians, researchers, and
software developers. | This site (for
teachers, not students) contains links to many
other sites on this list, and also contains
discussions among users of the various kinds of
software. There is a good searchable index on
the opening page, which allows you to find
resources that fit a particular teaching or
learning need. Itís a good idea to register in
order to take advantage of the special features
only available to registered users.
Registration is free. |
| 6-12+ | Wolfram
Demonstrations
Project This site has been
constructed using Steven Wolframís extraordinary
Mathematica software. It contains a
very large (more than 2000) and growing number
of interactive demonstrations that use dynamic
computation to illuminate concepts in science,
technology, mathematics, art, finance, and a
remarkable range of other fields. While most are
very sophisticated, many are useful at school
levels. Free software Mathematica
Player needs to be downloaded to use
independently of the
web. | The versions shown
on the web are just quick Flash
animations; to explore their use, first download
the software (only onto your
own computer and then download particular
demonstrations. The site has a good About
description, good FAQ file, search facilities and
a useful Topics list. The related menus on the
right of the screen offer many links. Start
exploring with Nets
of Polyhedra or Two
Dice with Histogram or Elementary
School Mathematics to see some of the range.
Select a demonstration to preview on the web
and then use the related menus to follow your
interests. In most cases, the (small)
downloaded versions provide many more
opportunities than the preview
shows. |
| 9-13 | This website
contains a lot of descriptive text, which is
mostly well-written in a large
font, and a number of interactive elements
constructed by the author, Murray Bourne from
Singapore. The interactive elements use LiveMath,
Flash
or Scientific Notebook. The first two of
these need a free plug-in to be downloaded and
installed, while the third requires the actual
software. While the main purpose seems to be to
provide good explanations and descriptions for
secondary students, which it achieves well, the
website has many nice uses of interactive
applets. | The Flash
highlights link at the top of the page
provide some nice examples of applets and will
give you a quick check to see if you already
have the Macromedia
Flash plug-in installed. The Sitemap
will give you a good sense of the scope of the
material, which may provide useful revision for
students, regardless of animations. Instructions
for installing plug-ins are useful (but only
install them on your own computer!). There
are many LiveMath applets on the site, with a
range of quality. Some of these would be useful
for demonstrations and class
discussions. |
| 10-12 | This nice Java
applet has been constructed by Lisa Murphy at
UIUC and can be used in the study of functions,
line graphs, slope, the derivative, and basic
motion concepts. Using a mouse, the student
drags a stick figure back and forth across the
top of the screen between its home and its
school. Below, graphs of the motion appear as
the motion progresses. | This is a nice
applet for students learning about
distance-time graphs and the early steps in
understanding derivatives, and a good alternative
to using a motion detector. The instructions on
the home page are useful, but you can go directly
to the applet here.
While individual students might use this, it
seems also that it would be a nice class
discussion tool. Some teaching materials are also
available on the site, which contains some
physics applets too, concerned with water flow
and electricity. |
| 11-13 | Mathematical
Visualization
Toolkit This is a large
Java-based package for plotting, both 2-D and 3-D
as well as solving equations, developed at the
Department of Applied Mathematics at the
University of Colorado. The entire package can be
downloaded as well as run on the Internet. The
interface is easy to use and the suite of
capabilities very
powerful. | Explore the tools
for graphing, drawing vector slope fields,
numerical integration and linear algebra, as
well as the various stand-alone applets under the
applications menu. While much of this suite is
more suited to early undergraduate work,
especially in calculus and engineering, much of
it is also very useful for the senior secondary
years as well. |
| 11-13 | This is a large
collection of Java applets for the Advanced
Placement calculus AB and BC courses in the US,
produced by Tom Downey using the excellent
applets at Webcompmath.
The applets cover the entire range of the courses
and hence of introductory calculus in general.
Each applet comes in a version shown on a web
page, suitable for viewing in a browser window,
and also as a separate resizable window with
larger fonts and line widths, suitable for
projection on a screen. The entire set of
individual applets can be downloaded for
classroom use, with appropriate attribution. A
very rich resource for students or teachers of
calculus. | The various applets
are well-designed and reminiscent of David
Eckís superb applets of many years ago (see the
xFunctions
link above). The applets come with ready-made
examples for students or teachers to explore,
as well as helpful suggestions for exploring
them. In addition, the various applets can be
used independently (eg using your own functions
rather than pre-set functions). Many of the
applets rely on a graphing window. Try Derivative
Function to see the general idea and then
explore topics of particular
interest. |
| 11-13 | This online textbook,
Online
Statistics: An Interactive Multimedia Course of
Study,
is
most suited to an introductory level tertiary
statistics unit, although there is also much of
interest here for senior secondary school. The
text has a number of interactive elements,
especially simulations and an analysis
laboratory. There are various case studies
provided for the user. | Check with the
instructions regarding your computer settings
and requirements. Essentially, you need a
browser, Java and Quicktime
(for the multimedia, which is optional). Notice
that different Mode settings are possible.
After checking the Instructions, go to the
Contents page and choose a topic of your
interest, or go direct to the List of Simulations
and Demonstrations. There are some good
simulations (which generally get you to answer
some questions in advance). Make sure you try the
Analysis Lab too. |
| 10-12 |
This website is
based around the remarkable Trendalyser
software, which allows for graphs Gapminder is a
non-profit venture promoting sustainable global
development and achievement of the United
Nations Millennium Development Goals by
increased use and understanding of statistics
and other information about social, economic and
environmental development at local, national
and global levels. | This wonderful
website allows a user to compare countries on
two different social dimensions simultaneously,
as in a scatterplot, but also shows how the
relationship changes over time as well as
showing population growth over time. Easier to
observe than to describe. Choose GapMinder
World 2006 to interact with these ideas,
linking statistics and global public health.
(There is a Help key if necessary.) The
website also has some nice presentations of Hans
Rosling using the software, which provide a
powerful new way to see statistics of these
kinds. |
| 9-12 | The Centre for
Technology and Teacher Education has long been a
pioneer of nice uses of technology, and this
collection of Flash applets is no exception. You
will need a Flash [player to use these, most of
which are for older students (although some are
for primary students as well). | These applets can be
downloaded for offline use, which is very handy
(and generous of the developers). Some of them
also come complete with some suggested
activities, although it is fairly clear in most
cases how they might be used. The Quincunx
and Sampling
Distribution applets provide powerful
visual demonstrations, while the Integer
Cars may help students make sense of
operations with negative numbers. Most of these
would be useful with an Interactive Whiteboard
for whole class use. |
| 10-13 | These Mathematics
Web Resources from Lawrenceville cover a wide
range of areas, and would be very useful for an
Interactive Whiteboard for whole class use. The
resources have been made using GeoGebra
and EquationPlotter
and take the form of Java
applets. | The applets are
mostly concerned with mathematics of the senior
years or the first undergraduate year,
especially in algebra, calculus and trigonometry.
Each offers a flexible interface to explore key
features. Try Unit
Circle or A
Function and its Derivative to get a taste
of the materials, which would provide good
classroom demonstration
tools. |
| 1-8 |
This suite of 32
Flash applets was produced as part of the
National Numeracy Strategy of the DFES in the
UK, and are designed to be used on an interactive
whiteboard. They deal with a range of
mathematical areas, and will help turn an IWB
into a teaching tool with mathematical
capabilities. |
While there is a
range among the set, teachers in primary school
will certainly find some of these to be of
value. Importantly, the applets can be downloaded
to a computer, so do not require you to be
online to use them after they have been
downloaded. Different versions are available
online Try Decimal
Number Line and Fractions
to get a feel for the applets. Each has some
(minimal) on-screen instructions, and slightly
more extensive teacher notes can be
downloaded. |
| 7-11 |
Described as a
prototype, this free web-based secondary school
geometry textbook developed by John Page
incorporates student learning with interactive
tools and Java and Flash animations. Many of
the tools and animations refer to specific
concepts or single-purpose mathematics tasks,
such as constructions, and could be used for a
range of purposes, including demonstrations in
class or on an interactive whiteboard. | Most of the
materials refer to aspects of geometry, although
this includes some measurement materials as
well. To see some examples, try Circumcircle,
Coordinate
Plane, Volume
of Cube or Graphical
Quadratic Explorer. The material is
well-suited as a reference for students (hence
the title and the ëtextbookí notion). Recently,
the materials have been expanded to include
coordinate geometry and some graphing applets.
Use the index
to find specific topics. |
| 8-12 | The Core-Plus
Mathematics Program is a curriculum development
program based at the University of Western
Michigan. CPMP-Tools is a suite of Java-based
mathematical software, specifically designed to
support student learning and problem solving in
each strand of Core-Plus Mathematics. This tools
component includes a number of Java tools
organised into four curriculum areas: algebra,
geometry, statistics and discrete
mathematics. | You will need to
download a java webstart link in order to access
the tools, which are very powerful. The
software includes four families of programs,
depending on which level of course (of 4) is
chosen. Each content-area tool includes specific
custom tools and built-in copies of many data
sets used in investigations and homework. For
example, there is a CAS engine, a spreadsheet,
data analysis, simulation and dynamic geometry
software, among others. The Help files will
provide detailed information. Although the
software supports a particular curriculum
(CPMP), it is widely
applicable. |
| 8-12 |
Mathias Wandelís
website is mostly concerned with woodworking and
other practical pursuits. This link however is
intended to test your skill at gauging
straightness and squareness, important
woodworking attributes, but may also provide
opportunities to practice and develop estimation
skills. | The connection to
mathematics here is not very strong, as the tasks
are mostly concerned with visual estimation.
Nonetheless, mathematics is involved in finding
centres of circles, line segments and triangles
(especially!); in finding parallelograms and
convergence points of lines and in bisecting
angles. Move the cursor and release to enter a
point; results are tallied (so that you can see
your improvement – if any) and your
success is located on a large
histogram. |
Feedback or
Last
revision: 3 July 2009