1.4.7 A note on straight-line graphs and their gradients

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.4.6 The signed area under a constant velocity–time graph

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.4.5 Velocity–time and speed–time graphs

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.4.4 The equations of uniform motion

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.4.3 Initial position and the intercept of the position–time graph

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.4.2 Constant velocity and the gradient of the position–time graph

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.4.1 Describing uniform motion

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.3.5 A note on graph drawing

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.3.4 Displacement–time graphs

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.3.3 Position–time graphs

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.3.2 Describing positions along a line

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.3.1 Simplification and modelling

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1 2 From drop-towers to Oblivion – some applications of linear motion

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

1.1 The description of motion

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

Introduction

Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.

Our People: Craig Rodger

An interview with Dr. Craig Rodger, Department of Physics.

Flames of Passion (1989) - extract

Richard Kwietniowski's short film lovingly twists David Lean's stiff-upper-lipped romance 'Brief Encounter' into a rich and witty contemporary melodrama, with two devilishly handsome young men standing in for Celia Johnson and Trevor Howard. Kwietniowski's award-winning work includes the feature 'Love and Death on Long Island'.
You can see the complete film and over 2000 other titles free in BFI Mediatheques around the UK - http://www.bfi.org.uk/mediatheque

1-D and 2-D Kinematics, Projectile Motion

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Risk as Feeling: New Perspectives on Risk Perception

Editor's note: We apologise for the poor audio quality of this podcast. Dr. Slovic will describe the laboratory experiments that led to the concept of risk as feelings and illustrate some insights gleaned from this perspective for behaviors as diverse as cigarette smoking and apathy toward large scale natural and human caused disasters. Dr. Slovic studies judgment and decision processes with an emphasis on decision making under conditions of risk. His work examines fundamental issues such as the

Quantum Information Processing

Quantum Information Processing aims at harnessing quantum physics to conceive and build devices that could dramatically exceed the capabilities of today's "classical" computation and communication systems. In this course, we will introduce the basic concepts of this rapidly developing field.