Module 6: Work, Potential Energy, and Conservative Force

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Vocabulary flashcards on Work, Gravitational Potential Energy, Elastic Potential Energy, and Conservative Forces covering key definitions, mathematical formulas, and theoretical properties.

Last updated 2:53 AM on 8/31/26
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16 Terms

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Work

The product of the force applied and the distance moved in the direction of the force; it is a scalar quantity.

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Joule (JJ)

The SI unit for work, also called a newton-meter (N×mN \times m); 1 Joule (J)1\text{ Joule } (J) of work is done when a force of 1 newton (N)1\text{ newton } (N) moves a body through a distance of 1 meter (m)1\text{ meter } (m).

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Horizontal Component of Applied Force (FxF_x)

The component of applied force in the direction of the horizontal movement of an object, calculated as Fx=Fapplied×cos(θ)F_x = F_{\text{applied}} \times \text{cos}(\theta), which performs work on the object.

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Vertical Component of Applied Force (FyF_y)

The component of applied force perpendicular to displacement, calculated as Fy=Fapplied×sin(θ)F_y = F_{\text{applied}} \times \text{sin}(\theta), which does no work on the object.

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Work Done by Applied Force at an Angle Formula

The work done when an applied force acts at an angle θ\theta relative to an object's displacement, expressed as W=Fdcos(θ)W = F d \text{cos}(\theta).

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Graphical Analysis of Work

A technique where work done in a force-distance graph is calculated as the area under the graph.

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Potential Energy

The energy of a system of particles or objects due to the position of those particles in the system; often referred to as stored energy.

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Gravitational Potential Energy (GPE)

The energy that an object has due to its position relative to the Earth's surface, calculated using the formula GPE=mgh\text{GPE} = mgh.

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Variables Affecting GPE

The physical factors that affect Gravitational Potential Energy: height (hh) and mass (mm).

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Elastic Potential Energy

Potential energy that is stored as a result of deforming an elastic material, such as a spring.

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Hooke's Law

The law stating that the force required to extend a spring is equal to the negative product of the spring constant and the distance stretched, expressed as Fs=kxF_s = -k x.

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Spring Constant (kk)

A constant parameter of a spring that remains fixed regardless of the length of time the spring is stretched.

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Elastic Potential Energy Formula

The formula describing the work done on a spring or potential energy stored within it: W=12kx2W = \frac{1}{2} k x^2.

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Conservative Force

A force done in moving a particle from one point to another such that the work done is independent of the path taken and depends only on the initial and final position of the particle.

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Closed Path Property of Conservative Forces

The property stating that the work done by a conservative force on any closed path (where the object returns to its initial position) is equal to zero.

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Reversibility Property of Conservative Forces

The property stating that the energy transferred by a conservative force is reversible and can be completely recovered when an object returns to its original position (assuming no friction or air resistance).