By Jordyn Kohl, Soumya Kamath, and Peter Ballentine

Slides:



Advertisements
Similar presentations
POSITION AND DISPLACEMENT A particle travels along a straight-line path defined by the coordinate axis s. The position of the particle at any instant,
Advertisements

Position, Velocity and Acceleration
Circular Motion Example Problem 3: a t = f(t) A bead moves along a circular wire. Its speed increases at a = 2t – 4 m/s 2. Its initial (at t = 0) position.
01-1 Physics I Class 01 1D Motion Definitions.
02-1 Physics I Class 02 One-Dimensional Motion Definitions.
Motion Vectors. Displacement Vector  The position vector is often designated by.  A change in position is a displacement.  The displacement vector.
CHAPTER Continuity Areas Between Curves The area A of the region bounded by the curves y = f(x), y = g(x), and the lines x = a, x = b, where f and.
3.3 –Differentiation Rules REVIEW: Use the Limit Definition to find the derivative of the given function.
SPEED AND VELOCITY NOTES
Derivatives of Vectors Lesson Component Vectors Unit vectors often used to express vectors  P = P x i + P y j  i and j are vectors with length.
Displacement Speed and Velocity Acceleration Equations of Kinematics with Constant A Freely Falling Bodies Graphical Analysis of Velocity and Acceleration.
1 Chapter 6: Motion in a Plane. 2 Position and Velocity in 2-D Displacement Velocity Average velocity Instantaneous velocity Instantaneous acceleration.
Kinematics Kinematics is the branch of physics that describes the motion of points, bodies (objects) and systems of bodies (groups of objects) without.
Kinematics Kinematics is the branch of physics that describes the motion of points, bodies (objects) and systems of bodies (groups of objects) without.
3024 Rectilinear Motion AP Calculus On a line. Position Defn: Rectilinear Motion: Movement of object in either direction along a coordinate line (x-axis,
Applying Calculus Concepts to Parametric Curves 11.2.
SECT. 3-A POSITION, VELOCITY, AND ACCELERATION. Position function - gives the location of an object at time t, usually s(t), x(t) or y(t) Velocity - The.
CHAPTER Continuity Arc Length Arc Length Formula: If a smooth curve with parametric equations x = f (t), y = g(t), a  t  b, is traversed exactly.
Resolve the vector into x & y components 40.0 m/s at 45 o SoW.
The Ubiquitous Particle Motion Problem Presented by Lin McMullin NCTM Annual Meeting 2013.
1 Lesson 1: Physics 150 / 215 Describing Motion Basic Terms & Units of measurement –distance & displacement –speed & velocity –acceleration Analyzing Motion.
2.1 Position, Velocity, and Speed 2.1 Displacement  x  x f - x i 2.2 Average velocity 2.3 Average speed  
S v t t Gradient of ST graph = Gradient of a VT graph = Area under a VT graph = Velocity Acceleration Displacement.
DIFFERENTIAL EQUATIONS Note: Differential equations are equations containing a derivative. They can be solved by integration to obtain a general solution.
Kinematics Motion Day 1. Frame of Reference The object or point from which movement is determined A. Movement is relative to an object that appears stationary.
Scalars and Vectors. Definition Scalar – a quantity that has a magnitude only, no direction. * YES, scalars can have units. ** What scalars have we learned.
Resolve the vector into x & y components 40.0 m/s at 45 o SoW.
5.3: Position, Velocity and Acceleration. Warm-up (Remember Physics) m sec Find the velocity at t=2.
3023 Rectilinear Motion AP Calculus. Position Defn: Rectilinear Motion: Movement of object in either direction along a coordinate line (x-axis, or y-axis)
Motion Notes. Key Terms 1)Motion: 2)Reference point: The state in which one object’s distance from another is changing. A place or object used for comparison.
What is tested is the calculus of parametric equation and vectors. No dot product, no cross product. Books often go directly to 3D vectors and do not have.
FRQ Review. Test Review Retakes by Wed FRQs 7(AB) or 10(BC) types 6 questions per year 9 points each Questions 1 and 2 – calculator Questions 3-6 – non.
Insanely Super Important Kinematics Terms. Kinematics The study of the motion of objects- does not deal with the forces that caused the motion.
Sect. 3-A Position, Velocity, and Acceleration
Chapter 3 Day 3 Acceleration.
Vector Application Problems
Today Kinematics: Description of Motion Position and displacement
Chapter 2 Linear Motion.
To introduce Kinematics
– KINEMATIC OF RECTILINEAR MOTION
Section 2–4 Acceleration Acceleration is the rate change of velocity.
Introduction to Parametric Equations and Vectors
Motion Along a Line: Vectors
Derivatives of Vectors
Rate of Change and Accumulation Review
Chapter 2 Objectives Describe motion in terms of changing velocity.
Motion Vocabulary.
Presentation: Uma Quizizz: Anna 5n1: Emma
Motion in One Dimension
RECTILINEAR KINEMATICS: CONTINUOUS MOTION
A Review of Kinematics SPH4U
Distance vs. Displacement
Unit 1: Learning Target 1.3 Differentiate between speed (a scalar quantity) and velocity (a vector quantity)
Day 6 UNIT 1 Motion Graphs x t Lyzinski Physics.
The acceleration is the derivative of the velocity.
Ch. 11: Motion 11.1: Distance and Displacement
RECTILINEAR KINEMATICS: CONTINUOUS MOTION
Parametric Equations and Motion
#13 Speed and Momentum. #13 Speed and Momentum.
Total Distance Traveled
Unit One The Newtonian Revolution
What is Motion A change in the objects position based on a reference point.
12.6: Vector Magnitude & Distance
15.3: Motion Rita Korsunsky.
Today Kinematics: Description of Motion Position and displacement
In the study of kinematics, we consider a moving object as a particle.
Speed Velocity Acceleration
12.5: Vector PVA.
Parametric and Vectors
Introduction to One-Dimensional Motion
Presentation transcript:

By Jordyn Kohl, Soumya Kamath, and Peter Ballentine Parametric and Vector By Jordyn Kohl, Soumya Kamath, and Peter Ballentine

Part 1: Parametric

Parametric Functions defined: a group of quantities as functions of one or more independent variables called parameters x = f(t) y = g(t) input: t x = sin(3πt) y = cos(5πt) -1 .5 1 1.5

Derivative of Parametric Equation dy dt 1st derivative: = dy dx dx dt 2nd derivative: ( ) d dt dy dx dx dt

√(f’(t))2 +(g’(t))2)dx Additional Terms B A Parametric Arc Length Equation: B √(f’(t))2 +(g’(t))2)dx A

Part Two: Vectors

Key Definitions Vector- directed line segment with a initial and terminal point. Component form: < x(t), y(t) > Magnitude: Length of the vector. = x2+y2 Speed: l v l (absolute value of the velocity vector) Average Speed: Distance divided by time elapsed. Total distance traveled: Integrate velocity function using the bounds given and take the absolute value of the value.

Motion with vectors Position: s(t)= <x(t), y(t)> Velocity: v(t)= <x’(t), y’(t)> Acceleration: a(t)= <x’’(t), y’’(t)> Derivative Integration Moving left: x’(t) is negative Moving right: x’(t) is positive. Moving down: y’(t) is negative Moving up: y’(t) is positive. At rest when x’(t)=0 and y’(t)=0