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Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
🌟 WELL DONE! 🎉
Bearings always start from the north line at the point you measure from and go clockwise. 🧭
Small bearings need a leading zero, like 039°, to stay in proper three-figure format. 🔢
Use alternate, co-interior, and corresponding angles to transfer angles quickly in bearing questions. 📐🔁
For a quick refresh on these, type LG.1 in the search bar. ✨


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.


Bearing = °
💡 Bearings where the angle is given from the north line all the way around: first find the smaller angle by doing 360° − x.

The slanted line AB connects the two points, and the north lines at A and B are parallel, so angle facts can be transferred between them.
Diagrams like this are never to scale, so rely on the angle values instead of the visual layout.
Once you have the smaller angle (360° − x), use alternate angles or co-interior angles to place that same angle at point B between AB and a south, east or west line.
From there, use straight-line facts (180°) and the 90° quarter turns to shift that small angle so it lines up with the north line for the bearing.
This often becomes 90° − small angle, 90° + small angle, or 270° ± small angle depending on whether AB is closer to east or west.
bearing of A from B
= clockwise angle from north at B
(this means moving from B towards A)
Finish by writing the answer as a three-figure bearing such as 112° or 284°.
