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| 1. Use 2d representations to visualise 3-d
shapes |
SSM3 |
| 2. Know names / abbreviation of units to
measure / estimate / calculate / solve problems in length
& area |
SSM2, N&M3 |
| 3. Area & perimeter of rectangles &
compound shapes |
|
| 4. Surface area of cubes & cuboids |
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| 5. Word problems / investigations - Length
/ Perimeter / Area |
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| 1. Identify & use angle / side / symmetry
properties of triangles & quadrilaterals |
SSM5 |
| 2. Solve geometric problems involving these
(using stepwise deduction & inference, explaining
reasoning with text / diagrams) |
SSM5 |
| 3. Use 2d representations to visualise 3-d
shapes |
SSM1 |
| 4. Constructions: |
measure / draw lines +/- 1mm |
|
| 5. Constructions: |
measure / draw angles +/- 1° |
|
| 6. Constructions: |
measure / draw triangles using SAS & ASA |
SSM5 |
| 7. Constructions: |
explore using ICT |
SSM5 |
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| |
| 1. Identify & use angle / side / symmetry
properties of triangles & quadrilaterals |
SSM3 |
| 2. Solve geometric problems involving these
(using stepwise deduction & inference, explaining
reasoning with text / diagrams) |
SSM3 |
| 3. Constructions: |
measure / draw triangles using SAS & ASA |
SSM3 |
| 4. Constructions: |
explore using ICT |
SSM3 |
| 5. Constructions: |
simple nets - cubes / cuboids / regular tetrahedron
/ square-based pyramid / triangular prism |
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- Measurement (length and area) is linked strongly
to Shape & Space in SSM1, but is taught more independently
in the Spring Term unit as part of Number (unit N&M3).
Therefore, the Spring Term unit, SSM3, shows a clear
emphasis on the visualisation of shapes and of their
transformations.
- The focus in the Spring Term unit, SSM3, is on
spatial awareness, postponing a more quantitative
approach to the Summer Term unit, SSM5. The learning
objectives for Measurement & Shape & Space
are presented more coherently again in the Summer
Term, (SSM5). Here, an approach, based upon a well-developed
awareness of both, can then be adopted to nets of
3-d shapes.
- Visualisation of shapes is listed as a significant
mental / oral starter type activity in the Medium
Term Plans for all three terms. Suggestions have been
included to reflect this, especially in the Spring
Term. Of particular value will be those sessions where
the teacher and pupils share specific ideas &
approaches aiding visualisation.
- There is a significant overlap of learning objectives
between the Spring and Summer Terms (see above list).
This allows considerable flexibility in planning by
individual teachers. For example, learning activities
can focus on a more generalised & broad range
of spatial learning in Spring Term, followed by an
in-depth, more rigorous approach in Summer Term; or
a hands-on approach in one term & an ICT-focused
approach in the second, etc ...
The basic pattern for each unit is as follows: |
| |
SSM1
Autumn Term: 4h Key L.O's: Word problems / investigations
with L, P and A
Recognising, drawing, naming, estimating, measuring
2-d shapes: length (inc. perimeter),area (rectangles
& compound shapes) and surface area (cubes &
cuboids). Overall, a balanced introduction toY7 SSM,
where both spatial and quantitative approaches to SSM
are used in an integrated way. These focused on separately
next term. Further development of metric units occurs
in Spring Term's N&M3.
|
| |
SSM3
Spring Term: 5h Key L.O's: none
Further experience of 3-d shapes representations
in 2-d; angle, side & symmetry properties of triangles
& quadrilaterals, including geometric problems, with
reasoning. Constructions of lines & angles, leading
to triangle constructions (given either SAS or ASA). Some
ICT exploration of constructions. Focus is on Shape and
Space, not on Measures. |
| |
| SSM5
Summer Term: 5h Key L.O's: none
Re-integration of spatial & measurement skills &understanding. Further
experience of angle, side & symmetry properties
of triangles & quadrilaterals, including geometric
problems as in SSM3. Transformations (from SSM4) are
explored more fully using ICT. Also, construction skills
now focus on SAS & ASA triangles and on nets of
variety of 3-d shapes, both by hand & using ICT.
Therefore, ICT is being proposed as a vehicle for consolidation,
modelling & extension of both the dynamic geometry
and the practical / static aspects developed in both
SSM strand
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