Vectors and Scalars – Learning Outcomes

Slides:



Advertisements
Similar presentations
Ashley Abid Nicole Bogdan Vectors. Vectors and Scalars A vector quantity is a quantity that is fully described by both magnitude and direction. Scalars.
Advertisements

3.1 Introduction to Vectors
Vectors and Scalars AP Physics B. Scalar A SCALAR is ANY quantity in physics that has MAGNITUDE, but NOT a direction associated with it. Magnitude – A.
Vectors and Scalars AP Physics B.
Scalars & Vectors Tug of War Treasure Hunt Scalars Completely described by its magnitude Direction does not apply at all e.g. Mass, Time, Distance,
Scalars and Vectors (a)define scalar and vector quantities and give examples. (b) draw and use a vector triangle to determine the resultant of two vectors.
Vector Mathematics Physics 1.
Role of units in problem solving Trigonometry Scalars and Vectors Vector Addition and Subtraction Addition of Vectors by Components.
Physics and Physical Measurement Topic 1.3 Scalars and Vectors.
Forces in 2D Chapter Vectors Both magnitude (size) and direction Magnitude always positive Can’t have a negative speed But can have a negative.
Agenda 1)Warm-Up 5 min 2)Finish Vocab. Words 10 min 3)Vocab. Quiz 15 min 4)Vector fill-in notes 15 min 5)Examples of Fnet 15 min 6)“In the Park” worksheet.
Vectors and Scalars Chapter 8. What is a Vector Quantity? A quantity that has both Magnitude and a Direction in space is called a Vector Quantity.
Aim: How can we distinguish between a vector and scalar quantity? Do Now: What is the distance from A to B? Describe how a helicopter would know how to.
VectorsVectors. What is a vector quantity? Vectors Vectors are quantities that possess magnitude and direction. »Force »Velocity »Acceleration.
Chapter 3 – Two Dimensional Motion and Vectors
Vectors. Vector quantity has magnitude and direction. is represented by an arrow. Example: velocity, force, acceleration Scalar quantity has magnitude.
Advanced Physics Chapter 3 Kinematics in Two Dimensions; Vectors.
Vectors and Scalars. Edexcel Statements A scalar quantity is a quantity that has magnitude only and has no direction in space Examples of Scalar Quantities:
Vectors Physics Book Sections Two Types of Quantities SCALAR Number with Units (MAGNITUDE or size) Quantities such as time, mass, temperature.
Physics and Physical Measurement Topic 1.3 Scalars and Vectors.
Vectors & Scalars Physics 11. Vectors & Scalars A vector has magnitude as well as direction. Examples: displacement, velocity, acceleration, force, momentum.
Vectors and Scalars.  A scalar quantity is a quantity that has magnitude only and has no direction in space Examples of Scalar Quantities:  Length 
Vectors Part II Ch. 6.
VECTORS ARE QUANTITIES THAT HAVE MAGNITUDE AND DIRECTION
Essential Idea for the Lesson
2.3.1 scalars and vectors Lesson 2.
Question 3 A car of mass 800kg is capable of reaching a speed of 20m/s from rest in 36s. Work out the force needed to produce this acceleration. m = 800kg v.
Vectors.
Starter  .
Vectors Scalars and Vectors:
Scalars & Vectors – Learning Outcomes
Vectors and Scalars AP Physics B.
Vectors AP Physics.
VECTORS Honors Physics.
Copyright © John O’Connor For non-commercial purposes only….. Enjoy!
Vectors AP Physics 1.
Calculate the Resultant Force in each case… Extension: Calculate the acceleration if the planes mass is 4500kg. C) B) 1.2 X 103 Thrust A) 1.2 X 103 Thrust.
Scalar Vector speed, distance, time, temperature, mass, energy
Vectors- Motion in Two Dimensions
2015 EdExcel A Level Physics
Physics and Physical Measurement
CBGS Physics Vector Unit 17/09/2018.
Mechanics & Materials 2015 AQA A Level Physics Vectors 9/17/2018.
Vectors and Scalars Chapter 8.
Vectors.
Vectors Scalars and Vectors:
Vectors List 5-8 situations that would involve 1 or 2 different forces acting on an object that cause it to move in a certain direction.
Vectors and Scalars.
Chapter 3.
VECTORS Level 1 Physics.
Vectors and Scalars AP Physics B.
VECTORS Level 1 Physics.
Vectors and Scalars.
Vectors Scalars and Vectors:
Pythagoras.
VECTORS ARE QUANTITIES THAT HAVE MAGNITUDE AND DIRECTION
Vectors and Scalars Scalars are quantities which have magnitude only
Scalars A scalar quantity is a quantity that has magnitude only and has no direction in space Examples of Scalar Quantities: Length Area Volume Time Mass.
Vectors and Scalars AP Physics B.
Unit 1 Our Dynamic Universe Vectors - Revision
Resolving Vectors in Components
Vectors a vector measure has both magnitude (size) and direction.
Vectors.
Vectors.
VECTORS Level 1 Physics.
Physics and Physical Measurement
Vectors and Scalars.
VECTORS Level 1 Physics.
VECTORS Level 1 Physics.
Or What’s Our Vector Victor?
Presentation transcript:

Vectors and Scalars – Learning Outcomes Distinguish between scalars and vectors. Recognise quantities as either scalars or vectors. HL: Find the resultant of perpendicular vectors. HL: Describe how to find the resultant of two vectors. HL: Resolve co-planar vectors. HL: Solve problems about vector addition and resolution.

Differentiate between scalars and vectors Scalars are quantities with magnitude only, e.g. distance, time, speed, temperature, mass, For scalars, only magnitude matters.

Differentiate between scalars and vectors Vectors are quantities with magnitude AND direction, e.g. displacement, velocity, acceleration, force For vectors, both magnitude and direction both matter.

Differentiate between scalars and vectors The distance between Dublin and Cork depends on the route you take. The displacement from Dublin to Cork is constant, has a particular direction, and is different to the displacement from Cork to Dublin.

Recognise Quantities as Scalars or Vectors State whether the following are scalars or vectors: energy width area weight thrust frequency volume

HL: Find the Resultant of ⊥ Vectors There are two rules for adding vectors. If the vectors are head to tail, the resultant starts at the tail of one vector and ends at the head of the other vector.

HL: Find the Resultant of ⊥ Vectors If the vectors are tail to tail, the resultant is formed from the diagonal of a parallelogram made from those two vectors.

HL: Find the Resultant of ⊥ Vectors In either case, we get a right-angled triangle. Thus, we can use trig rules to find resultants (Pythagoras’ theorem, sine, cosine, tangent). e.g. Two forces are applied to a body, as shown. What is the magnitude of the resultant force acting on the body?

HL: Find the Resultant of ⊥ Vectors e.g. A horse undergoes displacement of 3 km East followed by a displacement of 5 km North. Draw a diagram showing the horse’s path. What is the overall displacement of the horse from its starting point? e.g. A ship moves parallel to a straight river bank at 4 m∙s-1. Bronagh walks across the ship at right angles to the direction of forward motion of the ship at 3 m∙s-1. Find Bronagh’s overall velocity as she walks.

HL: Describe How to Find the Resultant of Two Vectors Attach strings to three force meters and tie the ends of the strings together. Pull on the three force meters until the string knot is at rest. The resultant of any two forces has magnitude equal to the third force and opposite direction.

HL: Resolve Co-Planar Vectors If we are given a resultant vector, we can resolve the vector into its components using trigonometry. e.g. The vector shown points East 30o North. Find its components in the East and North directions.

HL: Resolve Co-Planar Vectors e.g. Find the vertical and horizontal components of a vector of magnitude 20 N acting at 60o to the horizontal. e.g. Michelle pulls a rope which is tied to a cart with a force 300 N. The rope makes an angle of 20o to the horizontal. Find the effective vertical and horizontal forces on the cart due to the rope.