| Strand
2: 
Technologically
presented learning
material 
ICTMT
5, Klagenfurt, 6-9 August 2001 (Schedule,
tentative as of  08/06/01)
Chair:
Bernard Winkelmann
 
Monday  15:15 - 16:00                   Chair: B. Winkelmann
 Creating
and Teaching Online Mathematics CoursesMary
S. Hall (USA, mshall@mindspring.com) 
 
Tuesday 8:30 - 9:15                     Chair: Bernard WinkelmannAnimation,
a Tool for Understanding Polar CoordinatesMay
Abboud (Lebanon, mabboud@lau.edu.lb) 
 
Tuesday 9:30 - 10:15                    Chair: Bernard Winkelmann
 Computer
Assisted Assessment of Mathematical Proof = Proof of Computer
Assisted Assessment : An Integrated Approach to Higher Level Learning
using Group Response Systems and On-Line Assessment Michael
McCabe*, Ann Heal, Alison White (UK,
Michael.McCabe@port.ac.uk) 
 
Tuesday 10:30 - 11:15                   Chair: Bernard Winkelmann
 
Power Point
computer support during mathematics lessons in secondary school Tatjana
Byelyavtseva (Ukraine, byelyavtseva@kgpu.sa.net.ua) 
 
Tuesday 15:15 - 16:00                   Chair: Bernard Winkelmann
 Adding
a sparkle to classroom teaching - Using Word, Excel and the InternetDouglas
Butler (UK, debutler@argonet.co.uk) 
 
Tuesday 16:15 - 17:00                   Chair: Bernard Winkelmann
 The
Collection of Interactive Solid Figures and Spatial Situations in the
Cabri-geometryPavel
Leischner (Czech, Rep., leischne@pf.jcu.cz) 
 
Tuesday 17:00 - 17:45                   Chair: Bernard Winkelmann
 Parametric
nature of mathematics' objects and computer environmentVladimir
Nodelman (Israel, nodelman_v@bezeqint.net) 
 
Wednesday 8:30 - 9:15                   Chair: Bernard Winkelmann
 The Communiversity
project delivers a restructured Pre-Calculus distant learning courseStephen
and Nancy Priselac (USA, 
npriselac@gcc.cc.md.us) 
 
Wednesday 9:30 - 10:15                  Chair: Bernard Winkelmann
 Online
mathematics teaching:the development of student-instructor
interactionEdgar
Smith (Australia, itspvc@popeye.latrobe.edu.au) 
 
Wednesday 10:30 - 11:15                 Chair: Bernard Winkelmann
 Project
ZERO: Developing Online Material for Mathematics Teacher EducationAlfred
Schreiber (Germany, as@gefilde.de) 
 
Thursday 8:30 - 9:15                    Chair: Bernard Winkelmann
 Design
of Content Independent Instructional SystemsPeter
Cooper (USA, csc_pac@shsu.edu) 
 
Thursday 9:30 - 10:15                   Chair: Bernard Winkelmann
 Extending
a math support centre via the webDuncan
Lawson (UK, mtx047@coventry.ac.uk) 
 
Thursday 10:30 - 11:15                  Chair: Bernard Winkelmann
 Geometria:
A Tool for the Production of Interactive Worksheets on the WebTimo
Ehmke (Germany, ehmke@ewetel.net) 
 
Thursday 14:15 - 15:00                  Chair: Bernard Winkelmann
 Plenary:
 Developing
a technologically rich scheme of work for 11 - 12 year olds in
mathematics for electronic delivery Alison
Clark-Jeavons, Rosalyn Hyde (UK,
aclarkjeavons@hotmail.com, hyde@tcp.co.uk) 
 
Thursday 15:15 - 16:00                  Chair: Bernard Winkelmann
 Mathematics
and InternetHans
Stam, Peter van Wijk* (Netherlands, p.vanwijk@aps.nl,
h.stam@vechtcollege.nl) 
 
Thursday 16:15 - 17:00                  Chair: Bernard Winkelmann
 Teaching
Probability and Statistics via the InternetJudith
Hector (USA, judy.hector@wscc.cc.tn.us) 
 
Abstracts: 
 
Plenary: Alison Clark-Jeavons / Rosalyn Hyde, UK: 
Developing
a technologically rich scheme of work for 11 - 12 year olds in
mathematics for electronic delivery 
 There
is a major change happening in the English and Welsh education system
in relation to the use of technology.  Generally, in the last couple
of years, schools have moved over from using a variety of computer
platforms, including, commonly, Archimedes to using IBM-compatible
networks of personal computers.  There has been a huge increase over
this period in the number of schools connected to the Internet,
although the level of access in schools does vary.  It is now common
to find mathematics classrooms equipped with one or two PCs and there
have been schemes to help teachers buy laptops for personal use. 
Schools are also beginning embrace other forms of technology.  Some
schools now have some access to electronic whiteboards and data
projectors.  The government is helping to fuel these developments in
the use of ICT through its Department for Education and Employment
who are implementing various initiatives, one of which is described
here.  The use of calculators, four function, scientific and
graphics, at all levels of the curriculum has been a matter for great
debate in England and Wales for some time. The associated issues of
choosing software and training teachers to use this technology are
also matters for consideration. 
 At
the end of September 2000, the National Numeracy Strategy published a
draft Framework for Teaching Mathematics for Key Stage 3 (11 - 14
year olds).  This should have a significant impact on the use of
technology in the teaching of mathematics as it contains
exemplification of the use of PCs (principally spreadsheets and
dynamic geometry) and graphics calculators. In
order to respond pro-actively to this climate of changing technology,
the Department for Education and Employment has commissioned Research
Machines plc to develop a year 7 (pupils aged 11 - 12) scheme of work
for mathematics that makes extensive use of these technologies.  The
materials forming the scheme of work are all delivered to the 20
pilot schools electronically.  Each of these pilot schools have been
equipped with 3 classroom PCs, a laptop for the teacher, an
electronic whiteboard, a data projector, and 15 graphics calculators.
 In terms of software, the schools have Microsoft Office, The
Geometer's Sketchpad, MSW LOGO, Easiteach for using the electronic
whiteboard, and some custom-written software.  The project has been
developed to motivate and engage students and is aimed at evaluating
the contribution of ICT in raising standards in the teaching of
mathematics. Developing
materials for using this level of technology in classrooms is a real
challenge and is uncharted territory, certainly for a project of this
scale and with this level of impact nationally.  The opportunity
exists to develop the pedagogy for the appropriate use of technology
and result in a real impact on the teaching and learning of
mathematics. The
paper will examine the background to this work and relate recent
research as to the effects of different types of access to ICT on the
learning process.  It will develop a rationale for development of
such materials and examine the implications and effects of such
development. The
plenary lecture will present this work as well as showcase materials
developed by the project and present some of the preliminary
findings. 
Cluster
1
Peter
Cooper, USA: Design
of Content Independent Instructional Systems 
 
In
designing and implementing instructional systems for remote use, the
more sophisticated development environment allow for the use of
multimedia content in a packaged environment.  In such systems, the
container/interface is bound to the content at compile time and prior
to distribution. As part of a joint project with the United State
Corps of Engineers Research Laboratory, the researchers investigated
methods of separating the interface and data container from the
content in ways that support a more dynamic approach to maintaining
currency of content and distributed storage of instructional
materials. The presentation session will include demonstrations of
the training application, data entry applications and a look at
existing training developed through the system. 
Timo,Ehmke, Germany: Geometria:
A Tool for the Production of Interactive Worksheets on the Web 
 
 With
this contribution I will introduce the Java-Applet Geometria, a tool
for interactive worksheets to be presented on web-pages. Worksheets 
generally contain a dynamic figure together with some kind of
geometric learning content. This content is described by means of a
script-language (GeoScript) which  provides the possibility to
construct a euclidian figure and also supports the analytical
definition of points, vectors and curves. A special feature is the
feedback given to the student, while he/she is interacting with the
figure. A tutoring component enables Geometria to evaluating and
commenting on the student's answer. 
 
Mary
S. Hall, USA Creating
and Teaching Online Mathematics Courses 
 As
distance learning has expanded, so also has the use of the Internet. 
More and more we are seeing the expansion of course material to the
Internet.  What are the issues for teaching course material on the
Internet? What
students will benefit from such opportunities?  These are some of the
issues addressed in creating an online developmental mathematics
course and other mathematics courses.  This presentation will provide
both resources and methods for teaching a course on the Internet as
well as an emphasis on the new technologies becoming available.
Several
online mathematics courses will be used to demonstrate some basic
forms of communication and evaluation that are necessary for a course
to be successful.
 
 
Judith
Hector, USA: Teaching
Probability and Statistics via the Internet 
 The
author has taught a one-semester Probability and Statistics course
via the Internet four times.  The course is offered for university
transfer credit at an American community college.  The course is
conducted totally online for students at a distance, but local
students may meet for an orientation, midterm exam and final exam. 
From her experiences and research, the author discusses basic
principles of teaching and learning mathematics on the Internet. 
 
 
Duncan
Lawson*, J. Reed, and S. Tyrrell, UK: Extending
a  Mathematics Support Centre via the Web 
 The
Mathematics Support Centre at Coventry University offers support to
any student in the University who wants help with any area of
mathematics, statistics or quantitative methods.  The support offered
by the Centre is in addition to that routinely received in lectures,
tutorials, seminars, problems classes, etc.  The primary mechanism of
support is one-to-one contact with students offered on a 'drop-in'
basis.  This support is staff intensive and in order to optimise the
use of staff time alternative methods of supporting students are
continually under review.  A recent development has been the
introduction of a web-site for the Centre.  This paper describes the
background to the Mathematics Support Centre, the development to-date
of the web-site and an evaluation of its use. 
 
Stefan Priselac, Nancy
Priselac, USA: 
The Communiversity
project delivers a restructured Pre-Calculus distant learning course  
 
 The
presentation is  multi-media in nature and can last from fifteen
minutes to one hour depending  on the allocation of time.  The
Communiversity at Garrett Community College  provides diverse ways to
deliver training, courses, programs and interaction  across the globe
as we redefine access from set time to anytime and from one  place to
many places as we create a new future in education. 
 
Alfred Schreiber, Germany: Project
ZERO: Developing Online Material for Mathematics Teacher Education 
 This
paper reports about a project dealing with the conception and
production of supplementary learning material for mathematics
teachers. It surveys the various types of courseware-modules
presented herein online (e.g., dynamic geometry,
computer-based-training-like frames, paper-and-pencil-exercises), and
discusses their specific purpose and use. Emphasis is put on the
problem of how to embody appropriate functions that provide the
opportunity to evaluate user inputs - thus enabling an author to give
"local" feedback to the student. Finally, some questions
are raised concerning the form that should be used in the future to
represent both data and logical structure of the underlying content. 
Edgar
Smith* and A. Waterson, Australia: Online
mathematics teaching:the development of student-instructor
interaction 
 We
discuss differences between teaching styles in online mathematics
teaching and other less technical subjects. We discuss how to "lean
over a student's shoulder" online. Techniques are both automatic
and software mediated discussions with students. Discussions are
extremely expensive in terms of staff time, so we consider automated
responses. These are illustrated with sample problems in elementary
fluid mechanics in a subject delivered via WebCT. We discuss how to
evaluate and improve automated responses. 
 
 
Hans Stam, Peter van Wijk,
Netherlands: Mathematics
and Internet 
 The
Internet is primarily used as a source of information, as reference
work and as a medium in which to look things up. There is, it is
true, a lot to be found on the Internet, but for (arithmetic)
education the Internet can be more than an encyclopaedia or library. In
order to organise the various ways in which the Internet can be used
in education, we take the classification based on the idea that there
are various sorts of places on the Internet. 
Cluster
2
Mary
Abboud, Lebanon: Animation,
a Tool for Understanding Polar Coordinates 
 Students
in undergraduate classes have a great deal of difficulty in plotting
graphs of functions given in polar co-ordinates. In previous work
done, animation was used as a tool to understand how a linear
transformation affects the graph of a function, and here I am
extending this work to enable students to better understand polar
Coordinates and the relationship to Cartesian Coordinates. In our
experience, the use of a Computer Algebra System such as Mathematica
does not by itself guarantee that students will improve their
visualisation skills or their understanding of mathematical concepts.
It is necessary to design projects where students are encouraged to
observe phenomena, make conjectures and then test whether these
conjectures are really true. We present in this paper the work that
we have done and which can be used with students of Calculus. 
 
 
Douglas
Butler, UK: 
 Adding
a sparkle to classroom teaching  - Using Word, Excel and the Internet A
live large-screen demonstration of the creative use of generic
software tools both in the classroom and in the creation of
worksheets.  Surprisingly complex single line mathematical
expressions can be created in Word as text using the Unicode font set
and user-defined ALT-keys (in preference to the equation editor,
though that is still required for multi-layer expressions). These
expressions can be pasted into single-font environments such as an
Excel cell or an email.  Also the drawing toolbar can be used to
create a wide variety of diagrams, though there are disappointing
limitations. 
 The
finding and categorising of useful web resources will be discussed;
and the associate pasting of text, graphics and data (often with
difficulties to overcome) off the internet will also be covered,
including a trawl through the amazing web resources linked from the
Oundle School (UK) site http://www.argonet.co.uk/oundlesch There
will also be a look at some of the pitfalls when using Excel, and an
introduction to the concept of using dynamically linked objects to
visualise mathematics. 
 
Tatyana
Byelyavtseva, Ukraine: Power
Point computer support during mathematics lessons in secondary school 
 The
article includes the analyses of computer support during mathematics
lessons in secondary school. One of the main purposes of this is to
analyse lessons dedicated to developing basic geometric concepts. The
influence of new computer technologies on the process of stimulation
the scientific research among pupils of secondary schools is also
shown. 
 
Michael
McCabe, Ann Heal, Alison White, UK Computer
Assisted Assessment of Mathematical Proof = Proof of Computer
Assisted Assessment : An Integrated Approach to Higher Level Learning
using Group Response Systems and On-Line Assessment   
 
 In
the School of Computer Science and Mathematics at the University of
Portsmouth, computer assisted assessment (CAA) has been used
successfully in support of maths teaching for almost 10 years. CAA is
most commonly used for first year university modules, where the
numbers of students are greatest and the topics covered are basic. 
This leads to the common conception that CAA is only appropriate for
low-level learning.  
 Mathematical
proof is a topic which students find difficult to grasp and involves
a higher level of learning.  Traditional exam questions on proof are
time-consuming to mark, but CAA can provide an efficient and
effective alternative.  The speed and accuracy of marking objective
questions and the ability to give immediate feedback are among its
obvious benefits.  It remains to demonstrate that CAA can generate
results equivalent to those of a written, hand-marked examination. 
We will explain how this has been achieved: 
        by
        carefully designing test questions and considering learning
        objectives 
        by
        exploiting both on-line assessment and group response systems (also
        referred to as an audience (or class or personal response) systemby
        integrating both public and private practice of CAA into learningby
        analysing the results of computer marked exams 
 
Pavel
Leischner, Czech Republic: 
 The
collection of interactive solids figures and spatial situations in
the Cabri - geometry 
 The
article gives information on the collection of interactive solid
figures and spatial situations in the program Cabri-geometry. These
aids would facilitate the teaching of stereometry at high and
elementary schools. It is intended for the spatial imagery evolving.
It should make students pass from experimental manipulations with the
spatial situation to mental ones. Key
Words: High school stereometry, spatial imagery, teaching with
software, Cabri-geometry. 
Vladimir
Nodelman, Israel: Parametric
nature of mathematics' objects and computer environment 
 Although
the simplest mathematics' objects may be considered as based on
parameters. Most of parameters are numeric. In computer software it
is a regular task to implement numeric input. The problem is in: 
 
        visually
        discrete nature of an "input box" entry opposite to
        continuity of most mathematics notions' parameters, 
        not
        friendly interface with static changes in correspondence to entered
        values. 
         We
present an approach which let the student DYNAMICALLY enter and
change parameters in not pure numeric way, even prepare such input by
himself in order to analyse parameters' rule and mathematics' objects
"behaviour" 
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