The Physics of Bowling

The Physics of Bowling

Works Cited

Abstract

Did you know that the sport of bowling entirely involves physics? Well if you didn't know that, you should read this blog post about the physics incorporated into everybody's favorite sport to play at night on the weekend.

Bowling is a simple sport. First, grab a bowling ball with a weight that you're able to carry. Then, you approach the lane and aim your roll so you don’t miss the pins. Next, you roll the ball with force and accuracy. Last but not least, you hope that the force, speed and inertia applied on the ball knocks all the pins over.

Here are some scenarios in which physics is present in bowling. First, a bowling ball will slow down as it’s going down the lane due to the friction present between the ball and floor. To add on, bowling involves both somewhat elastic and inelastic collisions. Bowling also involves the conservation of momentum within the ball and pins. Moreover, Newton's Three Laws are very much a part of bowling physics. Lastly, inertia plays a great role in the way bowling is, as there's inertia in both the ball and pins. 

The sport of bowling is all about physics. To learn more about it, read my paper and view my slides to gain a better sense to how your knowledge of physics can change your viewpoint on the sport.

Physics of Bowling Paper Report

Physics of Bowling Slides

Physics of Dance

                                       
                                                               works cited
                                                                Abstract
                                                Physics of Dance Research Paper
                                                      Physics of Dance Slides

Physics in Soccer

Physics In Soccer 

    

Abstract 

Soccer is easily the most watched and played sport all around the world. Although most people play the sport for fun, what they fail to realize is the amount of science that goes into playing the beautiful game. At a young age most kids are taught to hit the ball with power, yet they don't understand why it is they do it, and its scientific effects. The same goes for one someone kicks a soccer ball to curve it. Whether you're on a field, in the gym, or on the streets there is science in soccer everywhere. Whether it be Newton's Laws of Motion, Momentum, The Magnus Effect, Friction, or Projectile Motion science affects the way a ball is shot, passed, or dribbled. To inform you of the science in Soccer, in my research paper and slides you'll see each aspect of science evaluated. All information for this project that was used can be found in the "Works Cited" page in my research paper or slides. 

Research Paper

Slides

Physics in Sound

Gabriella DeLaurentis
Period 3

Abstract:

Have you ever noticed how much sound surrounds you in one day? All of the conversations you hear and take part in, the music that you play while walking to class, or the background noises that are just barely audible. Now imagine how much you hear in a month, year, or even a lifetime. We are constantly surrounded by sound wherever we go. This project will go in depth about the physics behind sound. It will focus on how sound is perceived, how to calculate various aspects regarding sound/ sound waves, the Doppler Effect, and the significance of sound in our lives. Multiple sources were used throughout my research and can be found in my presentation, research paper, or by clicking the "Works Cited" link down below. 

Research Paper

Presentation

Works Cited

Physics of the Violin

Slides
Research Paper

Abstract:
This paper will focus on the relationship between physics and the violin.  It will describe how several subjects regarding physics pertain to the production of sound by the violin.  Some of these subjects include standing waves, frequency, friction, and resonance.  However, these are only a few of the topics of physics that cover its relation to the violin.  A considerable amount of mind and body coordination as well as years of practice are crucial for the success of a musician.  Still, having a better understanding about physics and how it applies to the violin can help any musician perform better with the violin.

Physics of Baseball

The Physics of Baseball

Marissa Young

AP Physics 1

Period 4

Abstract

Have you ever been at a baseball game and watched as some players hit home runs and others could barely make contact? Or why despite the pitcher's team or whether they were lefty or righty, they all generally follow the same motion? This project will go in depth into the physics behind baseball. You will learn about which types of pitches are easiest and hardest to hit, the motions a pitcher should follow to gain maximum control over the ball, and much more about how a ball's spin impacts the batter's ability to hit it. I will go through the common pitches such as fastballs, curveballs, and knuckleballs as well as how to throw them, and why some may be hit farther and others not as far. I will also discuss other forces that impact a ball's motion, like drag, gravity, Magnus force, normal force, and frictional force. My research also discusses the difference between centerline angle and attack angle and how depending on where you hit the ball, the ball's motion will be impacted. I used a variety of sources for my research that all can be found in the "Works Cited" page in either the research paper or the slides presentation.

The Physics of Baseball Research Paper
The Physics of Baseball Presentation

The Physics of Superman

Abstract:   Superman is a fictional superhero appearing in American comic book published by DC Comics. The man of steel, Superman, seems impossible. The guy has X-Ray vision. He has super strength. He even flies. There is no way he could do all that realistically. But if there were, here's how they would work, according to what we currently know about the laws of physics.

research paper: https://docs.google.com/document/d/1gpjUwR7r5QsWpEbF0rUo290C7fZ5DN34MPNOppxt1z8/edit
Presentation: https://docs.google.com/presentation/d/1apqbIlPS3fZ0DE1WqICPFWvKikgJcYAAlH-3hNXfzNw/edit#slide=id.p
Citations: https://docs.google.com/document/d/10B8wtUXICs1382ouYXPep2Fcr8zbuYralfkiCa63i6w/edit