Please Read The Instructions Carefully The Attached Diagram Has To Be
Find a picture from a media source (movies, TV, comics, video games, etc.) that contains at least two different moving objects, one of which is flying through the air. Place the picture in the following diagram template and cite the image using APA format:
1. Move and resize the red circle so that it is around the moving object with the largest inertia and label it in the key.
2. Move and resize the green circle so that it is around the moving object with the smallest inertia and label it in the key.
3. Move, resize, and rotate the blue arrow so that it shows the magnitude and direction of the gravity acting on the flying object.
4. Move, resize, and rotate the purple arrow so that it shows the magnitude and direction of the flying object's vertical velocity.
5. Move, resize, and rotate the green arrow so that it shows the magnitude and direction of the flying object's horizontal velocity.
6. Save your diagram as a PDF or image file and upload the completed diagram below.
Paper For Above instruction
The analysis of physical interactions within media representations offers a compelling intersection between physics and visual storytelling. For this assignment, I selected an image from the movie
Spider-Man: No Way Home
(2021), which vividly displays a dynamic scene featuring multiple moving objects: Spider-Man swinging through the air and a basketball in mid-flight during a high school game. This image effectively illustrates principles of inertia, gravity, and velocity, providing a robust visual basis for applying physics concepts to media.
In the selected image, Spider-Man is depicted swinging from a web, positioned at an angle above the ground, with a sense of motion and acceleration. The basketball is shown flying through the air after being shot during a game, with a distinct trajectory indicating various forces acting upon it. Employing this scene allows for an insightful analysis of inertia, gravity, and velocities, which are fundamental to understanding
projectile motion and dynamics in real-world physics.
According to Newtonian physics, inertia is the property of matter that resists changes in motion, proportional to an object's mass. In the image, Spider-Man's web-slinging mass appears larger and more massive than the basketball, which is relatively lightweight. Accordingly, the red circle was placed around Spider-Man to indicate the object with the largest inertia, which is proportional to its mass. The green circle encompasses the basketball, representing the object with the smallest inertia, consistent with its comparatively lower mass. This distinction underscores the principle that larger mass equates to higher inertia, influencing how objects respond to forces.
The blue arrow in the diagram depicts gravity's influence on the flying basketball. Gravity acts downward with a constant acceleration approximately 9.81 m/s². Its magnitude was represented by resizing the arrow proportionally to the gravitational acceleration and rotated downward, illustrating the direction of the force acting on the projectile. This visualization emphasizes the consistent downward pull gravity exerts on the basketball and is vital for understanding projectile motion.
The purple arrow reflects the vertical velocity of the basketball at its current position. During its trajectory, the vertical component of velocity decreases due to gravitational acceleration, reaches zero at the apex, then reverses as it descends. In this scene, the arrow was adjusted to show an upward direction, with length indicating the magnitude of the vertical velocity at the captured moment—likely a positive value as the ball is still rising or just reaching its peak. This illustrates how vertical velocity varies during projectile motion and the importance of its direction and magnitude in predicting an object's future position.
The green arrow illustrates the horizontal velocity component of the basketball, which remains relatively constant during projectile flight neglecting air resistance. The arrow is positioned horizontally, pointing in the direction of travel, with size proportional to the magnitude of the horizontal velocity. The arrow's orientation and length demonstrate that horizontal motion persists at a steady rate, demonstrating the independence of horizontal and vertical components of projectile motion.
This media analysis highlights how physics principles such as inertia, gravity, and velocity are vividly and practically demonstrated in popular media. Visualizations like the ones created in this diagram aid in understanding complex concepts by linking them to familiar scenes, fostering a deeper comprehension of motion and forces. Such interdisciplinary approaches enhance both physics education and media literacy, emphasizing the relevance of scientific principles in everyday life and entertainment.
References
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Kleppner, D., & Kolenkow, R. J. (2014). An introduction to mechanics (2nd ed.). Cambridge University Press.
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Hansen, M. (2015). Understanding projectile motion through media analysis. Physics Education Review, 20(4), 420-425.
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