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    About 319 results
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/01%3A_Mechanics/Ch.13%3A_Statics/1.13.2%3A_Explorations
      Therefore, the magnitude of the torque on the rod due to the tension in the right string must be equal to the magnitude of the torque on the rod due to the tension in the left string. What is the rati...Therefore, the magnitude of the torque on the rod due to the tension in the right string must be equal to the magnitude of the torque on the rod due to the tension in the left string. What is the ratio of the magnitude of the force of the right support on the board to the magnitude of the force of the left support on the board?
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/06%3A_Circuits/6.02%3A_New_Page
      Alternating Current (AC) circuits are circuits where the current and the voltage vary sinusoidally in time (in comparison with DC circuits where the voltage and current are constant). AC is the type o...Alternating Current (AC) circuits are circuits where the current and the voltage vary sinusoidally in time (in comparison with DC circuits where the voltage and current are constant). AC is the type of current you get from wall outlets; the current switches direction \(60\) times a second (\(60\text{ Hz}\) current). With AC, we begin the study of circuits with non-linear circuit elements such as capacitors, inductors and transformers, which are the back-bone of analog and power electronics.
    • https://phys.libretexts.org/Courses/Joliet_Junior_College/JJC_-_PHYS_110/11%3A_Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/00%3A_Front_Matter/03%3A_Credits
      Except for the exercises placed in the public domain, Physlet ® Physics 3E, i.e., the text and associated script for the Illustrations, Explorations, and Problems in Physlet ® Physics 3E are copyright...Except for the exercises placed in the public domain, Physlet ® Physics 3E, i.e., the text and associated script for the Illustrations, Explorations, and Problems in Physlet ® Physics 3E are copyrighted by Wolfgang Christian and Mario Belloni in the English language and for all other languages.
    • https://phys.libretexts.org/Courses/Joliet_Junior_College/JJC_-_PHYS_110/11%3A_Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/11.01%3A_Mechanics/11.1.04%3A_Newton's_Laws
      We have just finished our study of kinematics. In kinematics we did not care why an object was moving. We are now going to explain why objects move or do not move. We do so by using the concept of for...We have just finished our study of kinematics. In kinematics we did not care why an object was moving. We are now going to explain why objects move or do not move. We do so by using the concept of force. In this chapter we consider the basic techniques of free-body diagrams, the normal force, and the forces of weight and tension.
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/05%3A_Electromagnetism/5.4%3A_Electric_Potential
      The electric potential is measured in Volts and, as with potential energy, the point of zero electric potential is arbitrary. Common conventions are to call Earth (and any conductors connected to Eart...The electric potential is measured in Volts and, as with potential energy, the point of zero electric potential is arbitrary. Common conventions are to call Earth (and any conductors connected to Earth) zero Volts or to set the zero of electric potential at a distance very far away (infinity) from the charge distribution.
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/05%3A_Electromagnetism/5.02%3A_New_Page/5.2.2%3A_Explorations
      Since the normal force is perpendicular to the wire (and therefore points to the center of the wire circle), find the angle that the normal makes with either the horizontal or vertical and then show t...Since the normal force is perpendicular to the wire (and therefore points to the center of the wire circle), find the angle that the normal makes with either the horizontal or vertical and then show that the ratio of the gravitational force to the electric force is simply the tangent of the angle that the normal force makes with the horizontal.
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/07%3A_Optics/7.5%3A_Optical_Applications/7.5.4%3A_Supplements
      https://www.compadre.org/Physlets/op..._worksheet.pdf
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/01%3A_Mechanics/1.03%3A_Two-Dimensional_Kinematics/1.3.3%3A_Problems
      What is the average \(y\) acceleration of the ball during the interval of the first bounce, that is from \(t = 0.85\text{ s}\) to \(t = 0.95\text{ s}\)? What is the average \(x\) acceleration of the b...What is the average \(y\) acceleration of the ball during the interval of the first bounce, that is from \(t = 0.85\text{ s}\) to \(t = 0.95\text{ s}\)? What is the average \(x\) acceleration of the ball during the interval of the first bounce, that is from \(t = 0.85\text{ s}\) to \(t = 0.95\text{ s}\)? At \(t = 5.0\text{ s}\), what is the direction of the velocity vector and what is the direction of the acceleration vector for the red point?
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/06%3A_Circuits/6.02%3A_New_Page/6.2.2%3A_Explorations
      To measure the phase angle, since one period (\(1/f\)) represents a phase shift of \(2\pi\), measure the time difference between the peaks of the voltage and current plots and divide by the period (th...To measure the phase angle, since one period (\(1/f\)) represents a phase shift of \(2\pi\), measure the time difference between the peaks of the voltage and current plots and divide by the period (the time between the peaks of the voltage or the current) to find the percentage of \(2\pi\) by which the current is shifted.
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/03%3A_Waves/3.02%3A_New_Page/3.2.3%3A_Problems
      Find the frequency of the wave shown in the animation (position is given in centimeters and time is given in seconds). Find the velocity of the wave shown in the animation (position is given in centim...Find the frequency of the wave shown in the animation (position is given in centimeters and time is given in seconds). Find the velocity of the wave shown in the animation (position is given in centimeters and time is given in seconds). Sketch the displacement of each wave at the point \(x = 0\text{ cm}\) as a function of time (position is given in centimeters and time is given in seconds).
    • https://phys.libretexts.org/Under_Construction/Physlets_-_Interactive_Illustrations_Explorations_and_Problems_for_Introductory_Physics_(Christian_and_Belloni)/07%3A_Optics/7.7%3A_Diffraction
      Diffraction is the result of interference when a wave passes through an opening or edge. Diffraction effects are easier or harder to see depending on the wavelength of the wave and the size of a given...Diffraction is the result of interference when a wave passes through an opening or edge. Diffraction effects are easier or harder to see depending on the wavelength of the wave and the size of a given opening. The physical principle behind diffraction is the same as that of interference (see Chapter 37): the superposition of waves. In order to observe the effects of diffraction, slits or gratings must be of a size comparable to the wavelength of the light.

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