a)
Aims and
Objectives
The aim of
Science Education should be to assist pupils to gain a better
understanding of themselves, of their environment and of the wider
world.
Science
Education should also aim to develop in pupils an awareness of
scientific techniques ca be used to solve problems. By developing
skills, concepts and attitudes, Science Education can create a
lasting sense of awe and excitement.
In order to
achieve these Aims, our short-term purposes or Objective must be
clearly stated.
Skills
– perhaps the most vital skills are concerned with scientific
methods of enquiry, involving
(i)
Planning - observing
- hypothesising,
- predicting
(ii)
Obtaining evidence –
-
investigating
-
conducting experiments,
-
using
equipment appropriately
-
recording results:
(iii)
Considering evidence –
-
interpreting results,
-
drawing
conclusions,
-
Communicating information.
Concepts
–
Children should learn to investigate and
discover, where possible by practical and first-hand means. They
should learn that any testing they undertake must be ‘fair’, with
controls to cover all variables. They should also come to realise
that tests never prove, only support, a theory, and can even show
ideas to be wrong.
b)
b)
Content
Guidelines
The
requirements for Science for schools in Wales are outlined in
detail In the National Curriculum document:
At Key Stage
1, the headings are as follows –
Scientific
Enquiry
1. The
Nature of Science
2. Communication of Science
3. Investigative Skills
Life
Processes and Living Things
1. Life Processes
2. Humans and other Animals
3. Green Plants as Organisms
4. Living Things in their Environment
At Key Stage 2
there are some extra catergories:
Materials
and their Properties
1. The Nature
of Science
2. Changing
Materials
Physical Processes
1. Electricity
2. Forces and Motion
3. Green Plants as Organisms
4. Living Things in their Environment
Materials
and their Properties
1.
Grouping and Classifying Materials
2. Changing
Materials
3. Separating
Mixtures of Materials
Physical
Processes
1. Electricity
2. Forces and Motion
3. Light and Sound
4. The Earth and Beyond
NB These topics will be subject to change
as Curriculum 2008 is introduced.
c)
Process Skills
Observing
- using all the senses
-
detail
-
similarities and differences
-
order
and sequence
-
using
equipment
Hypothesising
- explaining in the light of evidence
-
explaining using scientific concept or principle
-
applying
previous knowledge or experience
-
more
than one explanation
-
tentative explanation
Predicting
- using experience to suggest what may happen
-
using
patterns to give reasons
Investigating
- identifying variables
-
controlling variables
-
fair
testing
-
measuring
Interpreting
- finding patterns and spotting trends and
Findings
- checking them
And
- putting various pieces of information together
Drawing
- to make a statement about their measuring
Conclusions
- identifying a relationship between one variable - and
another
Communicating
- talking, listening, writing, note taking
-
graphs
charts and tables
-
reporting to others
-
research
skills
d)
Progression and Differentiation
Throughout the Primary years, it is almost inevitable that some
themes are repeated. However, the importance of progression, both
in content and skills, cannot be overstated. Progressing from
simple observation, through identification of component parts, to
explanation of phenomena must develop as children proceed through
their primary classes. Children should become increasingly more
adept in all scientific techniques, and these should be reflected
in the tasks set before them. This can be seen through referral to
SC1 objectives in the SOW.
As
they progress from the concrete to the abstract, children should
be expected to draw upon previous experiences in predicting
outcomes.
Similarly, differing abilities and maturation levels within an age
group must be taken into account, as must be the problems faced by
children with SEN. Therefore teachers should differentiate
work appropriately.
The
wonderful thing about Science is that, if tackled properly, it can
transcend certain difficulties and usual ability levels that
restrict pupils with Special Educational Needs.
Being largely
a practical subject, with great emphasis upon first hand
experiences (and less upon the gleaning of information from
books), all children have the same opportunity to extend
their knowledge and understanding towards higher and greater goals
through independent, paired and group work which the CELIPS
approach allows.
Investigational work needs only to be restricted by levels of
interest and maturation. The success that can be achieved by
pupils who struggle in other areas of the Curriculum can be a
stimulus towards success in those areas.
However,
content must relate to a child’s experiences and stage of
development.
e)
Key
Skills
There are
often important and useful links between Science and other areas.
For example –
Science gives
the opportunity for the development of Literacy
based on first hand experiences –
It provides
opportunities for pupils to
·
Share,
discuss, explore and develop ideas, insights and opinions.
·
Explain
ideas rationally and argue constrictively.
·
Listen
to the views of others, questioning them to clarify what they
mean.
·
Read
and write with confidence, fluency, understanding and enjoyment.
·
Write
factual, detailed accounts, and present written reports which are
clear and accurate.
·
Consider analytically and make reasoned judgements and evaluation.
·
Increase their understanding and use of a wider vocabulary.
In the sphere
of Scientific Investigation, Numeracy plays an
essential part in ensuring that all tasks are completed
accurately, fairly and comprehensively.
Planning a ‘fair
test’ requires certain variables being maintained while others
are altered one at a time. This could require accurately
measurement of
‘mass’, ‘length’, ‘time’, ‘volume or
capacity’,
‘temperature’ ‘surface area’ and
‘angles’,
not to mention
the ability to ‘estimate’ effectively.
‘Numeracy’
skills will prove invaluable to the successful outcomes of Science
investigations, as pupils will regularly meet the need to
Classify, count, order measure, calculate,
use fractions, decimals and
percentages
and
negative as well as positive
numbers.
In recording
their Results, pupils have the opportunity to use a range of
Data Handling skills, from using simple
Pictograms block graphs
and line
graph.
Through to the
more complex
Pie
chart, statistical graph
or
line graph.
In Science,
pupils will be encouraged to repeat experiments to ensure the
results they obtain are valid and reliable. This could involve the
mathematical skills of
‘Averaging’
(mean, median and mode) as well as being required to look for ‘trends’
or ‘patterns’ in their results
- A
characteristic of much mathematical investigation. These can be
produced using pencil and paper or through the choice of Data
Handling programs on the computer.
ICT
should form an integral part of all schemes of work, and it is
particularly appropriate in the teaching of Science.
Most children
enjoy hands on experience on the computer. This in itself provides
a powerful stimulus to tackle new challenges. Lessons produced on
the SMART board can be interactive, exciting and extremely visual.
However, the
use by children of the computer needs to be planned most carefully
by the teacher in order to co-ordinate each aspect of learning.
The computer can assist in producing a balanced, broad and
progressive programme of study.
It is
essential that teachers are aware first of the range of software
within I.C.T. that is appropriate to the needs of their pupils, as
well as being fully conversant with the smooth running of each
program.
A Database
program allows the pupil to store data in a structured way. This
can be accessed, searched, sorted, and located quickly and
efficiently. New technical vocabulary such as ‘fields’ will become
familiar, as well as the sub-headings of ‘alphabetic’, ‘numeric’
and ‘alphanumeric’.
Spreadsheets
allow data to be stored and manipulated, and is viewed as a form
of grid, each section being known as a ‘cell’. Information entered
can be translated into a variety of different graphs – a bar
chart, pie chart or line graph – at the touch of a chart tool
button.
Word
processing can make the writing of reports easier and less
frustrating to those who find it a chore. By varying the font
and/or size, more interesting results can be achieved.
The use of
appropriate CD-Roms provides opportunity for pupils to research
information in an exciting and stimulation way, thus developing
and increasing their scientific knowledge and understanding.
If I.C.T. can
do all this to support Science, the role of Science within I.C.T.
should also be examined. In the section entitled Communicating and
Handling Information of the Programmes of Study, pupils are
expected to
·
Use ICT
equipment and software to communicate and share ideas and
information in a variety of forms.
·
Organise, reorganise and analyse ideas and information.
·
Interpret, analyse and check the plausibility of information held
on ICT systems
In the
Modelling section of the Programme of Study, it states that pupils
should
·
Use ICT
models or simulations to try things out, (KS1)
·
Explore
the effects of changing variables in simulations and similar
packages, and to ask the question
‘What would happen
if…..?’ (KS2)
and
·
recognise pattern and shape in the results obtained from ICT based
models or simulations
(KS2)
A Check List
of Information Technology skills appropriate to Science
Investigations and Understanding will include
Save load print edit
copy text
Collect data
set up database search database sort database
Create bar
chart create pie chart interpret graph
Create
spreadsheet insert formulae search
CD-ROM
Retrieve
information produce table draw image use sensors
Thus Science
and Information Technology are closely associated and share many
vital characteristics.
Science also
provides children with opportunities to work in pairs and
in groups, communicating their findings, sharing and
evaluating their and others work in a positive way.
In the
Foundation subjects, there is also scope for a scientific input,
and teachers might well find ideas for scientific investigations
from a range of cross curricular stimuli.
For example,
in History, pupils might investigate ways of moving heavy
objects, as in the case of Stonehenge, or how to raise stones as
in the building of the pyramids in Egypt.
In the study
of A Third World County in Geography, pupils might
investigate how to purify muddy water and make it fit for
drinking.
Moving models
are often needed for Science experiments in such activities as
comparing various slopes or surfaces. Design Technology
skills will be invaluable in producing effective ‘vehicles’.
Cwrriculum
Cymraeg
– In all aspects of the National Curriculum, the Welsh dimension
should be emphasised. Science is no exception. Wherever and
whenever possible, aspects of “Welshness” can be referred
to.
For example,
in Sc2, when studying the parts of a flower, the daffodil (the
Welsh emblem) makes a perfect specimen. Likewise the planting of
daffodil bulbs can produce a colourful display for St. David’s
Day.
Materials
(Sc3) can include an examination of types of coal and reference
can be made to the historical association between coal mining and
Wales. Similarly, Welsh slate and Pembrokeshire stone transported
to Stonehenge add to the Welsh element.
Marconi’s use
of a base in Wales is just one aspect which could be incorporated
into Sc4.
No doubt,
teachers will find many opportunities to incorporate key skills
and marry Science to other curriculum areas skills and will come
to appreciate the benefits in doing so.
f)
Science
in the Early Years, Foundation Phase (Knowledge and
Understanding of the World)
The overall
aims of Science in the Early Years are threefold –
a)
to
foster a child’s natural curiosity;
b)
to
provide a variety of hands on experiences; and
c)
to begin
the development of skills useful not only in future science
activities but in future everyday life – ‘active learning’.
A child’s
natural curiosity can be developed through exploratory play using
sand, water, clay, dough, paint etc., as well as investigative
play using magnets, mirrors, buzzers and the like. The Foundation
Phase provides an excellent vehicle through which to do this.
Cooking,
gardening, outdoor play, Forest School, visits to parks, visitors
to the classroom can all provide a rich variety of experiences.
Among the
skills to be developed are –
·
Observation encouraging children to observe such criteria as
(i)
self
awareness
(ii)
other
living things
(iii)
natural
materials
(iv)
man made
materials.
·
Comparing and classifying – looking for similarities and
differences in the above, and the testing of ideas.
·
Communicating – the sharing of scientific experiences through
talking, questions and answers in either –
(i)
small
groups
(ii)
child/adult situations
(iii)
discrete
questions
(iv)
imaginative role play
Good,
effective early year’s experiences will provide the foundation on
which later scientific skills and concepts will flourish.
g)
Resources
This does not
merely refer to a list of suitable Science equipment. While
teachers need to know what apparatus is available, and its exact
location, resources has a much wider meaning.
Teachers,
through their own particular expertise, can be a most valuable
resource in passing on their skills, knowledge, experience and
ideas to their colleagues. Passing on information regarding what
works well and what is ineffective is very worthwhile.
Science
Resources can be found in various locations around the school,
mainly in the white boxes adjacent to the Year 5 classroom and in
individual teacher’s classrooms. Television, the Internet and
computer programs can be wonderful stimuli.
The school
grounds and local environment are further resources from which to
draw. Outside agencies include –
Science Advisory Service S.G.I.G.E.
Forestry Commission Parks
Dept.
National Museum of Wales Techniquest
Local Libraries
GE Healthcare
XL
Wales Roadshow
h)
Assessment and
Record Keeping.
Assessment is
a means of discovering what a pupil has learned and mastered. It
informs teachers as to relevant future steps.
The National
Curriculum requires teachers to make regular assessments of their
pupils, and to gather evidence to justify scores/grades awarded.
Assessment can
not best be undertaken through a series of tests. Rather, it
involves observation of a child at work, questioning on what is
being done and understood, noted in field notes in the Assessment
file. The extent to which the results are interpreted and
assimilated during investigations at the end of topics on a termly
basis are analysed and levelled by the class teacher and filed in
the Class Assessment file. These levels are then entered onto the
school’s Electronic Pupil Tracker which follows and tracks
a child’s progress as he/she moves through the school. Teachers
should also use the 2 stars and a wish sheets half termly when
marking children’s work to inform them of the next step.
Tasks to be
assessed need not be lengthy or complex, merely appropriate to the
ability of the child. Optional Assessment Materials at KS2 provide
assistance to Teachers when levelling children’s work.
Progress
should be kept and updated regularly. Teachers have Science field
notes to keep ongoing records covering the Skills relative to SC1,
2, 3 and 4.
It is
essential that Assessment relate to specific Learning Objectives,
SC1 objectives and KS objectives as outlined in Teachers’ Planning
– both Medium and Short term.
More details
appear in the Scheme of Work.
i)
Evaluation
Evaluation is
the gathering of information to consider its significance in
adjusting teaching strategies and in planning future strategies.
In the light of
experience, teachers should be able to look back over the Learning
Objectives and the Teaching Activities and reflect upon the
successful and unsuccessful aspects.
To assist in
objective analysis, the following questions could be asked –
·
Did the
Teaching Activities furnish opportunities to develop the Learning
Objectives?
·
Were they
within reach of the ability of the pupils for whom they were
intended?
·
Were the
Teaching Activities presented in a clearly defined and logical
sequence?
·
To what
extent were there significant and relevant connections across the
curriculum?
Evaluation must
be seen as a diagnostic tool. If effective, it will ensure better
teaching leading to better learning.
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