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Transcript
Framework for developing schemes of work for the geometry curriculum for ages 14 -16
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
EUCLIDEAN
P LANE
GEOMETRY
Distinguish
Know and use angle, Construct hierarchical
between, acute, side, diagonal and
classification of 2 -D and 3-D
right, obtuse and symmetry properties shapes.
reflex angles.
of quadrilaterals and
classify quadrilaterals
by their geometric
properties.
Know and use
the angle sum of
a triangle, the
sum of angles at
a point, and the
sum of angles at
a point on a line.
Understand proofs Understand proofs that the
that the angle sum exterior angle of a triangle is
of a triangle is 180°. equal to the sum of the interior
angles at the other two vertices.
Know and use angle
properties of
equilateral, is osceles
and right angled
triangles.
Understand why
the angle sum of
any quadrilateral
is 360°.
Know and use angle
properties of
intersecting and
parallel lines and the
consequent
properties of
parallelograms.
Know and use
the sum of the
exterior angles
of polygons.
Calculate and use
Know and use angle and
the angles of regular symmetry properties of polygons.
polygons.
AND
Angle sum of
polygons by
practical
demonstration.
USE OF ICT
PROOF
Exploring
properties of
quadrilaterals.
Angle sum of a
triangle by
practical
demonstration.
Use formal arguments to
verify standard ruler and
compass constructions.
D EDUCTION
Angle sum of a triangle using
parallel lines.
Angle sum of polygons using
triangles.
Angle sum of a
quadrilateral.
Angle sum of a quadrilateral.
Angle sums of
polygons.
Angle sums of polygons.
CONTEXT AND
APPLICATION
Use of dynamic
geometry to
investigate and
illustrate
History of Euclidean
geometry.
Use of Logo to
investigate
polygons and
stars.
Use of dynamic
geometry to
investigate and
illustrate.
Fabric and graphic
design.
Tessellations.
Use of dynamic
geometry to
Angle properties of
investigate and
Angle properties intersecting and parallel lines illustrate.
of intersecting and and parallelograms.
parallel lines and
parallelograms.
Use of dynamic
geometry to
investigate and
illustrate.
1
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
Know and use the
fact that the angle
between a tangent
and a radius is a
right angle.
Recognise
congruence of
shapes in
different
orientations.
Understand and use tangent and Know and use the
chord properties of circles.
alternate segment
theorem.
Know and use the facts that the
angle subtended by an arc at the Understand the proofs of
centre of a circle is twice the
the facts that the angle
angle subtended at any point on subtended by an arc at
the circumference, including the the centre of a circle is
special case of a semicircle, and twice the angle
that angles in the same segment subtended at any point on
are equal.
the circumference, that
angles in the same
Know and use angle properties segment are equal and
of cyclic quadrilaterals.
that opposite angles of a
cyclic quadrilateral are
equal.
Understand the
Use knowledge of similarity to
Understand and use SSS,
concept of similarity solve problems involving plane
SAS, ASA and RHS
and be able to
shapes.
conditions to prove the
identify similar
congruence of triangles.
shapes.
D EDUCTION
AND
PROOF
Angle properties Angle properties relating to
relating to circles. circles.
Use of dynamic
geometry to
investigate and
illustrate.
Relationships
between lengths
in similar shapes.
Use of dynamic
geometry to
investigate and
illustrate.
Understand various proofs of
Use Pythagoras’s
Pythagoras’s theorem, and use theorem to solve
Pythagoras’s theorem to solve problems in 2D and 3D.
problems in 2D.
Pythagoras’s
theorem.
Various proofs of
Pythagoras’s theorem.
Pythagorean
triples.
Derivation of the formula for
the distance between two
points.
Use trigonometry to solve 2D
problems including bearings and
angles of elevation and
depression.
Similar triangles
leading to
trigonometrical
ratios.
Use right angled triangle
trigonometry to solve
problems in 2D and 3D
including finding the angle
between a line and a
plane.
USE OF ICT
Solve problems
involving
intersecting
planes, pyramids
etc.
Use of a
spreadsheet to
assist with
investigation.
CONTEXT AND
APPLICATION
Tangent/chord
theorem and the
distance o f the
horizon from
different heights
above the sea.
History of the
relationship
between the sides
of right angled
triangles
(Babylonians,
Chinese and
Greeks).
Bearings.
Using angles of
elevation and
depression to
determine heights
and distances.
Astronomy.
2
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
Calculate the area of a triangle Use the sine and cosine
using A = 1/2 absinC.
rules to solve 2 -D and 3-D
problems.
Use distances to
locate objects in
3D space.
Investigate close
packing of
spheres, crystal
lattices etc.
GEOMETRY
Find the coordinates Calculate the length of a line
of the midpoint of segment in 2-D given the
the line segment AB, coordinates of the end points.
given points A and B.
Understand the concept of
gradient and use triangles to
calculate gradient.
Understand and use 3D
coordinates.
Investigation of
the distance
between two
points on a
coordinate grid.
Investigation of
gradients.
Calculate the length of a
line segment in 3D given
the coordinates of the
end points.
Understand simple
properties of points, lines
and planes in 3D space.
E.g. y = 4 is a plane, two
planes generally intersect
in a line.
AND
PROOF
USE OF ICT
Areas of triangles Proof of sine and cosine rules.
using
A = 1/2absinC
Derivation of the formula for
and A = 1/2bh.
the area of a triangle.
C OORDINATE
Use coordinates Use coordinates in all
in the first
four quadrants.
quadrant.
D EDUCTION
CONTEXT AND
APPLICATION
Calculation of the
tetrahedral bond
angle in the
diamond crystal
lattice.
Use of a graph
plotting program.
Derivation of a general result Use of dynamic
for the distance between two geometry and
points on a coordinate grid.
graph plotters ,
including graphic
calculators to
investigate and
illustrate.
CAD
Navigation
problems involving
bearings.
Locating positions
on a map or grid.
Link with algebra
and y = mx +c.
Gradients of roads
and slopes.
Locating positions
on a map or grid.
Air traffic control.
Computer images
in medicine and
engineering.
3
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
3D GEOMETRY
Construct nets of Construct nets of
cuboids.
pyramids, prisms
cones and cylinders
Recognise nets from given
of, prisms,
information.
pyramids
cylinders and
cones
Understand and use Explore polyhedra whose faces
2D representations are regular polygons.
of 3D objects
including isometric Euler’s rule
drawings of shapes F + V = E + 2.
made from cuboids,
simple sections, plans
and elevations
Carry out
reflections of
simple shapes in
given mirror lines
on Cartesian
axes.
Identify all lines
of symmetry for
2D shapes.
Reflect and describe
reflections of simple
shapes in a range of
mirror lines on
Cartesian axes and
use computer
packages to reflect
shapes.
D EDUCTION
AND
PROOF
Use of equipment
to make and
handle models.
USE OF ICT
CAD.
CONTEXT AND
APPLICATION
Design of
packaging.
Crystal structures.
Cross curricular
links with design
technology.
More difficult sections of
solid shapes.
Investigation.
Euler’s rule.
Existence of only 5 Platonic
solids.
Polyhedral forms in
the natural world –
pollen grains,
viruses etc.
Use rotations to prove
Pythagoras’s theorem.
Kaleidoscopes.
Existence of only 5
Platonic solids
linked to regular
tessellations.
S YMMETRY,
TRANSFORMATIONS
AND VECTORS
Investigate two
reflections being
equivalent to a
rotation.
Symmetry in art.
Islamic design &
architecture.
4
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
Understand and
use vertical and
horizontal
displacement for
location and
movement.
Understand and use
vector notation for
translation. And use
computer packages
to translate shapes.
Understand and use vectors in
the context of translation
including inverse translation,
repeated translations and
combinations of translations.
Describe
combinations of
translations as a
single vector.
Calculate and represent
graphically the sum and
difference of two vectors
and a scalar multiple of a
vector.
D EDUCTION
AND
PROOF
USE OF ICT
CONTEXT AND
APPLICATION
Investigate
repeated
translations and
associated vector
arithmetic.
Transformations of
graphs of algebraic
and trigonometrical
functions.
Investigate
enlargement of
shapes.
Combinations of
rotations and
enlargements to
generate spirals.
Calculate the resultant of
two vectors.
Translations and
tesselations.
Understand and use the
commutative and
associative properties of
vector addition.
Solve problems in 2D using
vector methods.
Enlarge shapes Enlarge shapes using Enlarge shapes using a centre of Enlarge 3D shapes.
using any positivea centre of
enlargement and any scale
whole number enlargement and
factor and describe
scale factor.
any positive whole enlargements.
number scale factor .
Solve simple
problems involving
enlargement of 3-D
shapes.
Identify order of Rotate a shape
rotational
about the origin
symmetry.
through multiples of
90°.
Photographs.
Desk top
publishing.
Rotate shapes using any centre
of rotation and any specified
angle and determine the centre
and angle of rotation.
5
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
Use practical
equipment to
investigate
simple tiling
patterns.
Demonstrate that any triangle
will tessellate.
Investigate
polygons and
combinations of
polygons that will
and will not
tessellate.
Determine which regular
polygons will tessellate either
singly (regular) or in combination
with others (semi-regular).
S YMMETRY,
Devise instructions for a
computer to generate and
transform shapes.
AND
PROOF
USE OF ICT
CONTEXT AND
APPLICATION
Tessellations.
Use of Logo and Pattern design.
dynamic
geometry
packages.
TRANSFORMATIONS
AND VECTORS
(CONTINUED )
Apply simple combinations of
Apply more complex
transformations and describe the combinations of
results using a single
transformations and
transformation.
describe the results using
a single transformation.
Distinguish properties that are
preserved under particular
transformations.
D EDUCTION
Investigate
combinations of
transformations.
Stretch shapes using an
invariant horizontal or
vertical line and a scale
factor.
Estimate lengths.
DRAWING ,
CONSTRUCTION AND
LOCI
6
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
Choose and use
appropriate
instruments and
units for
measuring
length.
Use geometrical
Understand through experience Construct the
equipment to
of constructing that triangles
circumscribed and inscribe
construct 2D shapes. satisfying SSS, SAS, ASA and RHS circles of triangles using
are unique but SSA triangles are geometrical equipment or
Use computer
not.
computer packages.
packages to
construct shapes.
Find and sketch loci Construct standard loci using
from practical
geometrical equipment and
examples.
computer packages.
Interpret and use
scale drawing
including maps and
plans.
D EDUCTION
AND
PROOF
USE OF ICT
Use of dynamic
geometry for
drawing loci.
CONTEXT AND
APPLICATION
DIY retail.
Graphic design.
Use of Logo for
construction of
shapes.
Construct
Prove the validity of standard Carry out
circumcircles,
constructions using
standard
incircles, centroids, congruence.
constructions
exscribed circles.
using dynamic
geometry.
Construct
unknown centres
of rotations.
Construct polygons.
Maps, plans and
elevations.
Templates for DIY.
Garment making
Use of CAD
Scale diagrams,
maps, blueprints
and models
Room planning
Estimate the size
of an angle in
degrees.
Use of software Snooker problems.
packages on
estimating
angles.
7
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
D EDUCTION
AND
PROOF
Use a 360°angle Understand,
measure and use
measurer to
simple bearings.
draw and
measure angles.
USE OF ICT
CONTEXT AND
APPLICATION
Orienteering.
MENSURATION
Find perimeters
of simple shapes
Understand the Derive and use the
concept of area formula for the area
and find areas by of a rectangle.
counting
squares.
Investigat e areas
of rectangles.
Derivation of the formula for
the area of a rectangle.
Understand the
derivation of and use
the formulae for the
areas of
parallelograms and
triangles.
Investigate the
Derivation of the formulae for
relationships
the areas of parallelograms
between areas of and triangles.
triangles,
rectangles and
Prove that parallelograms with
parallelograms.
the same base and heights
have the same area.
Calculate the areas Solve problems involving lengths,
of plane compound areas and volumes in plane
shapes.
shapes and right prisms.
Investigate
relationships
between
perimeters and
areas and surface
areas and
volumes.
Investigate
volumes of
parallelepipeds.
Use of
Practical
spreadsheets for measurement of
trial and
real objects.
improvement.
Calculations from
plans or blueprints.
Fencing problems.
Maximum box
problems
Calculation of the
discharge of a
river.
8
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
Know and use
Calculate lengths of simple arcs
formulae for finding and areas of simple sectors of
circumferences and circles.
areas of circles.
Calculate the lengths of
arcs and areas of sectors
and segments of circles.
Circumferencearea relationship
for circles.
D EDUCTION
AND
PROOF
Prove the formula for the
area of a circle by considering
any polygon [A=0.5r x
perimeter]
circumscribing a circle and
taking the limit as the polygon
tends to a circle.
USE OF ICT
CONTEXT AND
APPLICATION
Latitude problems.
Understand the
concept of volume
and find the volume
of cuboids by
counting cubes.
Derive and use the
formula for the
volume of cuboids.
Find the surface areas of prisms Solve problems involving
including cylinders.
volume and surface areas
of pyramids, cones,
spheres, composite shapes
and frustums.
Understand the relationships
between lengths, areas and
volumes of similar figures with
whole number scale factors.
Understand the
relationships between
lengths, areas and
volumes of similar figures
with any scale factors.
Distinguish between formulae for
length, area and volume by
considering dimensions.
9
CURRICULUM
CONTENT
GRADES G - F
GRADES E - D
GRADES C - B
TEACHING
T OPIC
G RADES A – A*
OPPORTUNITIES
INVESTIGATION AND
ILLUSTRATION
Use network
diagrams to
represent
information on
simple maps.
Understand and use Understand and use Euler’s rule Represent solids as
the terms arcs,
R + N = A + 2.
networks.
nodes and regions as
they relate to simple
networks and
traversability.
NETWORKS
Investigation of
traversability of
networks.
D EDUCTION
AND
PROOF
USE OF ICT
CONTEXT AND
APPLICATION
Topological maps.
Bridges of
Konigsberg.
Four Colour
Theorem.
10