PROPOSAL
1. Summary
This
is a proposal for a project by SUVIDYA, an educational resource group in
Bangalore, India. SUVIDYA has been involved in many projects whose goals
have been to improve the quality of education imparted in schools in several
parts of India. The methodology
employed by SUVIDYA involves the creation of models or teaching aids to
illustrate mathematical concepts. SUVIDYA also organizes training
workshops for teachers.
In the first section information about SUVIDYA like the objectives of the organization, the people behind the organization, their experience etc is provided.
The
overview of the proposed project is given next followed by details like the
individual tasks involved, the execution plan, the target audience, the time
schedule etc. This is followed by a section on the budgetary details.
In
the Appendices included at the end are previous project details.
2. About SUVIDYA
“SUVIDYA” is a trust registered with the
Registrar of Trusts, Bangalore. (Registration No. 37/2000-2001, 11th May
2000). It is not presently registered
with the Ministry of Home Affairs, New Delhi, under the Foreign contributions
Regulations Act. However, it is
possible to get prior permission from the Ministry to receive funds to SUVIDYA
trust. We need about 3-4 months (after
receiving confirmation from the funding agency) to get prior permission.
Legal status
SUVIDYA
trust has been granted the status of wholly Charitable trust under section 12A
of Income tax act and hence is exempted from payment of taxes on any grants,
donations or other sums received.
SUVIDYA
trust is also granted recognization
under section 80G of Income tax act indicating that the donations made
to SUVIDYA are exempt from Income tax in the hands of the Donors.
Trustees are: Dr.S.N.Gananath - Director
Prof.D.R.Balurgi
- Professor of Physics. LVD College
Raichur,
Karnataka
Dr.C.Ravikumar - Scientist &
Development professional.
SUVIDYA began in 1994 as an educational initiative of SAMUHA,
to promote and utilize innovative ideas in education. It was intended that the school going children in and around
Jalahalli in Raichur district would be the primary beneficiaries. SUVIDYA has also committed to make
available the fruits of this endeavor to anyone interested in adopting the
same. Specifically, SUVIDYA has
identified Math, Kannada and Science as the priority areas.
Multipurpose Algebra Kit
SUVIDYA is currently a
grantee of ASHA and AID and is working on the design, developing testing and
dissemination of Multipurpose Algebra Kit for children / teachers of class 7 to
10. The kits are ready for feedback and
dissemination and the project is in the final stages of its completion.
3. Introduction
Increasingly, policy makers
are concerned about the quality of primary education. Several programmes have now been initiated to address the issue
of quality, as opposed to mere access, of primary education in government
schools. Illustratively, the World Bank
has supported the District Primary Education Programme (DPEP), and other bilateral
funding initiatives supported Janshala, each programme running in several
states of India. SIDA supported the Lok
Jumbish programme in Rajasthan, In Karnataka; the central government has
supported Chaitanya, an ambitious effort at teacher revitalization, involving
training and teaching aids. In all of
these programmes, child-centric and activity-based education is the
dominant pedagogical framework.
Teachers and trainers are showing far more interest in material-based
pedagogy.
The result of these
initiatives is that the scenario of primary school education is changing. For long it has appeared to be static; now
things seem on the move, and there is a sense of excitement. In this atmosphere
of greater commitment and support to quality, DPEP had a provision wherein each
primary school teacher was sanctioned Rs. 500 per year, to make or purchase
necessary teaching materials.
Subsequently, in an informal survey of what facilities are available and
availed of by primary school teachers, often money went unutilized. To the extent that any materials were
purchased, expenditure was only on books.
Thus, even though activity-based education is being supported
conceptually, reasonably priced hands-on activity kits are not actually
available in the market.
4. The proposed project
The vital role of mathematics
in primary education has been adequately recognized by curriculum makers and
designers. Maths is needed for abstract
thinking, problem solving, logical reasoning and for developing intellectual and
psychological ability of the child. In
the world of development, it is a critical area of intervention (both in-school
and out of-school) as it is also a life skill.
Despite this, conceptual understanding is inadequate, motivation and
interest are fast declining and achievement levels in maths are low. The many problems that beset teaching in
primary mathematics include the uninteresting and dull presentation of
material, lack of a problem-solving approach and prevalence of math phobia.
Place value is considered a
difficult mathematical concept, which, in a cascading effect, leads to other
problems in mathematics learning.
Children do not get hands-on experience in learning about place values,
resulting in a felt need for such a kit, as ascertained during our interactions
with teachers, trainers and children.
Suvidya intends to design, produce and test a kit consisting of 10 aids,
20 worksheets/charts and a handbook with additional information (see box for
details).
Components of
Place Value Kit 10 aids 10 activities Worksheets Place Value Jokes History of Place Value Common Errors General Information Users’ Manual Features of Place Value Kit Multigrade Multilevel Potential to be linked to the textbook Simple and interactive for the teachers Several language versions
Through workshops,
field-testing and feedback, primarily in rural and urban Government schools, we
will refine the kit. After testing and
refinement, we will liaison with the Government and NGOs for wider dissemination
of the kit.
A few sampls are ecclosed (
See appendix II).This,however is a preliminary draft requiring major changes.
5. Objectives
6. Activities and time
line
1.
1 |
Project starts |
Apr 2001 |
2 |
Design
of the Kit |
Nov 2001 |
3 |
Pretest
the Kit |
Jan 2001 |
4 |
Design
the manual |
Oct 2001 |
5 |
Pretest
the Manual |
Jan 2002 |
6 |
Obtain
feedback |
Jan 2002 |
7 |
Introductory
workshop |
Mar 2002 |
8 |
Field
test |
Apr 2002 |
9 |
II
Worksshop/ Field test |
May-July 2002 |
10 |
III
Workshop/ field test |
Jun-Aug 2002 |
11 |
IV
Workshop / Field test |
Jun-Aug 2002 |
12 |
Documentation
/ evaluation |
Jul-Sep 2002 |
Although we are currently
envisaging four workshops as part of the process of developing the kit, in
order
to enhance the number of
inputs to the kit, we will proactively be liasoning with other groups for
supporting
2 to 4 more workshops.
Sl.
No. |
Description |
Justification |
|
Amount
in Rs. |
|
1 |
Materials, Labour etc to produce kit |
500Kits x |
500 perkit |
250,000 |
|
2 |
Salary: Project Head 25% |
5000 Per month x |
18
months |
90,000 |
|
3 |
Salary:
Coordinator |
6000 Per month x |
18
months |
108,000 |
|
4 |
Communication Telephone, Fax, Internet, Courier, postal |
1000 Per month x |
18
months |
18,000 |
|
5 |
Rent 50% + Rent related expenses |
7000 Per month x |
18
months |
126,000 |
|
6 |
Training workshops |
15000 Per workshop x |
4
workshop |
60,000 |
|
7 |
Travel: Local and outstation |
2500 Per month x |
18
months |
45,000 |
|
8 |
Consultancy Fee |
|
|
20,000 |
|
|
|
Sub Total = |
717,000 |
||
9. |
Over heads Admin etc Bank, Society, Audit, Secretarial Photocopy, Staff welfare |
10% of the above |
71000 |
||
Grand Total = |
787,000 |
||||
(Rupees
Seven lakhs eighty seven thousand only)
Cheque / DD
may be made favouring SUVIDYA payable at Indian Overseas Bank,
Jayanagar V Block Branch, Bangalore, India (A/c No. 12352) after prior
permission is obtained from the ministry of Home Affairs.
A sanction
letter is required to apply for prior permission.
APPENDIX - I
OUR PROJECTS
SL. No. |
Project Title |
Funding Agency |
Date commenced |
Status |
1. |
Maths Lab |
Jawaharlal Nehru
Planetarium, Bangalore |
June,1994 |
Completed |
2. |
Maths corner at the Belgaum
Science Centre |
Karnataka Rajya Vignyana
Parishad, (KRVP) Bangalore |
September, 1994 |
Completed |
3. |
17 Maths labs in School
Science Centres |
KRVP, Bangalore |
October, 1994 |
Completed |
4. |
Establishment of Maths,
Science and Kannada labs in 42 government primary Schools, Raichur District,
Karnata |
PLAN INTERNATIONAL |
June, 1995 |
Ongoing |
5. |
100 Maths labs in School Science Centres |
KRVP, Bangalore |
June, 1996 |
Completed |
6. |
5 Maths labs in Science
Centres |
KRVP, Bangalore and Sir
Dorabji Tata Trust, Mumbai |
June. 1996 |
Completed |
7. |
Establishment of Maths
Centres in BRCs and CRCs in Belgaum, Raichur, Mandya and Kolar |
District Primary Education
Programme (DPEP), Karnataka |
November, 1996 |
Completed |
8. |
Production and trial of
Self learning low cost Geometry kits (High School) |
National Council for
Science and Technology Communication, Department of Science and
Technology. GOI, New Delhi. |
Started Mar’98 to March’99 |
Completed |
9. |
Training of trainers and
teachers belonging to aided schools in Karnataka |
National Education Group,
South Zone (Dioceses) |
Aug’98 to Nov’98 |
Ongoing |
10. |
Enrichment Programme for
Maths teachers |
URMUL Trust, Bikaner,
Rajastan |
|
Completed |
Appendix II
Place Value kit : Draft Manual
1. Place value indicator
Materials: Opaque plastic cards / laminated thick
cards, thread, 40 cards with numbers written.
Concepts: Positional value,
Addition.
How to use:
1.
Hold the model such that the part tied with thread is to your
right. Take, for example, a 2-digit
number like 71. Place the 1 in the unit’s place and 7 in the ten’s place. Now, the combined number is 71. Notice that on folding back 1 there is a 0
behind it indicating that the place value of 7 is 70. In the same way use 3-
and 4-digit numbers and continue the activity.
Questions:
Can
this method be used for learning and reinforcement of the decimal number
system?
There are some cards with positional value. What is their use?
How does one make cards with positional values for 5th, 6th
and higher positions?
Can this be used as a calendar?
Can this model be used in activities like addition? Try it out.
Other concepts
Rectangular shapes.
Low cost locally availabl e materials:
Boxes, Invitation cards, white papers.
2.
Book of 362
Materials:
The
book entitled “Many facets of 362”.
Concepts:
Place
value, extended form of numbers.
How
to use:
1. Look through the book carefully.
Find out how many ways the number 362 can be
represented.
2. Each page found can be represented as a
chart. Give similar numbers to the
children.
Let them use these numbers in different
ways. Discuss with the children the
many
forms of this number.
Questions:
In
what other ways can this number be represented?
Other
concepts
This
can be slightly changed to learn decimals.
It can also be sued for fractions. The same method can be used on coins
and notes.
3.
Extended notation
Materials:
Thick
card
Concepts: Place value.
How
to use:
1. Fold the card such that the number 6375 is
visibl3e to the children.
2. Unfold the card behind the number 5. Notice that 5x1 is written.
3. Ask the question “ what’s the meaning of
number “7”
4. Notice 7x10 written on the fold behind the
number 7. The meaning of 7 is this.
5. In the same way determine the meaning of 3
and 6.
6. In the same determine the place value of all
the 4 digits.
Questions:
In the same is it possible for you to prepare
the model(s) for a 2 or 3 digit number
That you like?
Other concepts:
Decimals.
Low cost locally available materials:
Paper, Chart paper, Newspapers, Calender etc.
4. Mind reading card
Materials:
Thick
cards with numbers printed on them.
12 sets of 6 cards each? Laminated).
1 set of 7 cards? Not laminated).
Concepts:
Addition, subtraction, multiplication.
How to use:
There are 13 sets of cards. Each set of cards has been set with one type
of design pattern. Make the sets based on that.
1.
Pick up this set of cards.
2. This game is played by 2 people. Pick the first card from the set and show it
your
friend.
3. Ask your friend to remember one of the
numbers in the card and put it aside.
4. Now show each card to your friend asking if
the card has the number.
5. If the answer is “yes” keep the card in one
place and if the answer is “no” keep the
card
in another group.
6. In this way after
exhausting all the cards, turn and see what is written on the “yes”
group of cards. There
will either be a number or some instruction.
For example it may
say “sum it up” in which case the sum of all the numbers on the
cards is the number
that your friend had in mind.
Check this out.
7. In some cards the instruction may be “sum it
up” and in others it may be “subtract”.
In
such
a case add the numbers first and then subtraction.
8. If the instruction is multiply one must
multiply the numbers.
How
to make these sets:
It is not that these sets are the ultimate
ones. After playing with all of these
sets you can prepare many such sets yourselves.
Pick 5 numbers. For example 4, 5, 6, 8, 3 (can be in any order).
Make a strip and write these numbers on it.
From these pick some numbers (e.g.: 4, 8,
3). Write their sum (15) in the first
slot of the second row. In the second row containing 15 put a tick
mark under 4, 8 and 3 as indicated in the picture.
In the same way complete the rest of the grid.
Look at number 12. Since 4 + 5 + 3 = 12 the columns with numbers 4, 5 and 3
have been ticked.
Cut out 6 cards of size 3” x 4”.
Write thus on the first card: ‘Remember any one
of these numbers.’
15, 19, 11, 14, 12, 22, 4 (all numbers from the
first column).
On the back of the second card write “add 4”.
On the front of the second card write all the
numbers that have been ticked on the second column that are 15, 12, 4. Now the second card is complete.
In the same way prepare the cards 3, 4, 5 and
6. The way to use them has been
described above.
If subtraction has to be done, the numbers in
the first line in the grid must be written as
‘__’. (Substraction symbol).
The same principle can be used for
multiplication.
Questions:
In a
set when would more than 6 cards needed?
Low
cost locally available material:
K. G.
card or thin sheet.
5.
Arch game.
Materials:
Arcs made of Forex sheet
Cards with numbers written on them.
Marbles.
2 wooden pieces.
Concepts: Addition
Numbers with one digit.
Numbers with two or more digits
Decimal system
Fractions
Ascending/descending order
How to use:
1. Place the arch in the middle of the
classroom.
2. As indicated in the picture place the card
in the elastic band.
3. At a distance of 8 – 10 feet from the arch
draw a line (The distance can be modified as needed).
4. Invite a child and give him 5 marbles. Ask him to roll the marbles such that it
goes into the
arches. Two rules need to be
observed while doing this. The child should not cross the line.
Only
one marble must be rolled in each attempt.
5. If the marble passes through arch, the
number on the card above the arch will be added the
child score. The card should
have maths expession whose complexity will depend on the level
of
the children. larger numbers must be on
the cards with the smallest arc openings and
smaller numbers on the larger arcs. (1, 10, 100, 1000).
6. This can be successfully used even in a
situation where children form multiple classes are
being taught. On one side of the
arch, stick cards with one digit numbers and let the children
from
the first standard use this part. On
another side, put cards with 2-digit numbers, and let the
children from the second standard use it.
Questions:
Can you make a model with 7 doors?
Why stick cards with smaller numbers for the
arcs with larger openings? In the same
way why stick cards with larger numbers for the arcs with smaller
openings? Think about it.
Other
concepts:
This
model can be used for multiplication and subtraction.
Low cost, locally available
material:
K. G. card, thick cards, carton box,
cardboard. This model can be made by
folding newspapers into many folds. The
game can also be played by drawing pictures of the arcs on the wall, in which
case the marbles will bounce off the wall instead of going in.
6. Abacus.
Materials:
Long rubber board, 36 matchsticks.
Holes in 9 rows and 4 columns.
Concepts:
Place value, decimal, addition, subtraction,
multiplication, division, and different geometric shapes.
How to use:
1.
Pick a single digit like 8. The
child must place these 8 matchsticks in the unit position on the board. Pick a
number with 2 digits. E.g.: 39. The child must place 3 sticks in the tenth
position and 9 sticks in the unit’s position.
In
this way pick 3 and 4 digit numbers and show the place values of the hundred’s
and thousand’s positions.
2.
You can insert the sticks and then ask the children to determine the
number represented.
3.
Addition: Use this model to demonstrate the sum obtained on
adding 35 and 2.
4.
In the same way teach addition.
5.
Cover up the printed place values and write tenth, unit, 1/10, 1/100 in
its place. Between unit and 1/10 place
a decimal point. This is like readying
a decimal table. Try teaching decimal
numbers with this.
6.
Make a triangle using three matchsticks and a rubber band. (Look at the picture).
In the same way make other
geometric figures.
Questions:
How
will you change this model to teach the concept of 1000, 10000 etc.?
Can this model be used to teach the concepts of
multiplication and division?
7.
Subtract 8 from 13
Materials:
5
Black plastic pipes
2 Plastic lids
Concepts:
Subtraction
Addition
Units place – tenth place
How
to use:
There
is a difference between doing subtraction-using objects and using symbols.
Ex: Subtract 8 from 13. If this is to be done using symbols the
concept of a carry over must be known.
Why is carry over necessary and when is it to be used? What is its use? To learn these concepts this model would be useful.
1.
Take 13 marbles and put 10 of them in a pipe. (Note: Each pipe can hold exactly 10 marbles. Only a set of 10 marbles must be put in the
pipe.)
2.
Tell the children “This is thirteen.
This can be written as 13. This
means that there are a group of 10 marbles (show the pipe full of marbles) and
3 separate ones”.
3.
Ask the children “Now if 2 is subtracted from 13 how many will remain?”
4.
The children will put aside 2 out 3 marbles and say 11.
5.
Ask them how 8 can be removed from 13.
Write this on the blackboard as well.
13
8
_
6.
Now there is a problem. There is
a need for 8 separate marbles. There
are only 3 separate marbles to keep aside.
What should be done now?
7.
The children would have seen that there are 10 marbles in one pipe. Make them understand that if these ten are
added to the 3 marbles there will be enough marbles to subtract 8. Let the children know that in such a case
the pipe has to be opened. Put all the
13 marbles in a group. From these
subtract 8.
Write the same thing on the blackboard also:
13
8
5
8.
Follow similar steps for addition also.
(Here one needs to make groups of 10.)
Questions:
How
will you use the same model to do the following math problems?
Subtraction:
Addition:
Other
concepts:
The same thing can be sued for 100 also. This can be used for cylinder and cylinder
imprint.
Other
ideas:
The marbles can be put in small plastic cup
also. However there must be exactly 10
marbles.
One could use 10 beads strung together on a
string for this activity.
Make a
cylindrical shape using a sheet of paper.
These can be cut into smaller pieces
and
used.