I NTRODUCTION TO V ECTORS MCV4U. K EY T ERMS scalar vector displacement velocity force geometric vector magnitude true bearing quadrant bearing parallel.

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Presentation transcript:

I NTRODUCTION TO V ECTORS MCV4U

K EY T ERMS scalar vector displacement velocity force geometric vector magnitude true bearing quadrant bearing parallel vectors equivalent vectors opposite vectors

V ECTORS AND S CALARS A scalar is a quantity that describes magnitude or size only. It does not include direction. A vector is a quantity that has a magnitude and a direction.

V ECTOR OR S CALAR ? a distance of 10 m an acceleration of 8 m/s 2 due west a volume of 40 L a displacement of 25 m to the right a weight of 50 N a mass of 5 kg

5 km B A 30 ° R EPRESENTING V ECTORS Geometric vectors

R EPRESENTING V ECTORS In symbols, ending the endpoints of the arrow: Point A is the initial point, or “tail” Point B is the terminal point, or “tip”

R EPRESENTING V ECTORS In symbols, using a single letter, such as:

R EPRESENTING THE D IRECTION OF A V ECTOR as an angle, measured counter-clockwise from a horizontal line 30°

R EPRESENTING THE D IRECTION OF A V ECTOR a true bearing, where the angle is represented as a three-digit number measured clockwise from North e.g. in the true bearing system, north is 000°, west is 270°, and east is 090°

R EPRESENTING THE D IRECTION OF A V ECTOR a quadrant bearing, which is expressed as an angle between 0° and 90° east or west of the north- south axis e.g. Draw a vector with the quadrant bearing [N 30° W] N 30°

Parallel vectors have the same or opposite direction, but not necessarily the same magnitude. Equivalent vectors have the same direction and magnitude. Opposite vectors have the same magnitude but opposite direction.

E XAMPLE Consider the rectangle ABCD where F is the intersection of the diagonals. a) List all equivalent vectors. b) List all opposite vectors.