Skip to main content

Why Hitting A Home Run Is Much Harder Than It Looks

When watching a baseball game, it is easy to admire the talent of the athletes on the field.  There are very few people who can throw a ball 90 miles per hour or hit it 400+ feet, but Major League Baseball is loaded with human beings who demonstrate this capability.  Recently, with advanced interest in baseball analytics, it has become even easier to be struck by the supernatural talents of the world's top baseball players.

Many people often associate size and muscle mass with the ability to throw a baseball hard. However, this is not actually the case.  The hardest throwers use their muscle mass combined with torque created by the separation of the hips and shoulders (Arndt).  Think of a spring.  In order to get the maximum amount of power from a spring, it is compacted as much as possible, also creating pressure.  At the moment of release, the spring explodes out to its maximum length, pushing forward against another object and setting it in motion.  This is the same system that occurs in a pitcher's body right before a pitch is released.  When a pitcher throws a ball 100 miles per hour, there are 80 newton-meters of torque on the pitchers elbow and it is believed that any more torque would cause the pitcher's elbow to snap (Arndt).   As soon as the pitch is released, the baseball is impacted by the acceleration due to gravity, pulling the ball downwards, and air resistance, causing the ball to speed up or slow down, depending on the velocity of the wind.

Even more difficult than throwing the ball is hitting the ball.  When the numbers are broken down, hitting a major league baseball seems downright impossible, as explained in this video:

While hitting the ball seems impossible, players often hit the ball very hard.  In order to determine how well a ball is hit, the two main aspects inspected are launch angle and exit velocity.  Both aspects have to be within a certain margin of error in order to hit the ever desirable home run.  Two other aspects that impact the flight and distance of the ball are humidity and air temperature.  As both increase, the ball tends to travel farther due to a decrease in the density of the air (Kaplan).  Both actions of pitching and hitting a baseball are what make the game so interesting and impressive to watch.  Knowing the numbers behind every play makes watching every pitch awe-inspiring.

Works Cited
Arndt, Justin. “How Aroldis Chapman Threw the Fastest Pitch Ever.” The Huffington Post, TheHuffingtonPost.com, 23 May 2017, www.huffingtonpost.com/entry/how-aroldis-chapman-threw-the-fastest-pitch-ever_us_57c38390e4b06384eb4066ef.
Kaplan, Sarah. “The Physics behind Hitting a Home Run.” The Washington Post, WP Company, 11 July 2016, www.washingtonpost.com/news/speaking-of-science/wp/2016/07/11/the-physics-behind-hitting-a-home-run/?utm_term=.c0c7380b1182.




Comments

Popular posts from this blog

The Physics of Spiderman

Over this past weekend after I finished working on my homework, I decided to relax and watch a few movies before going asleep. Among the movies I watched was Spider-Man 3 from 2007 and despite the movie flaws I was interested by the scenes that showed Spider Man shooting through the sky with the use of his webs that come out of his wrists. Due to this, I decided to make my blog post about the physics of Spider-Man's slingshot. After doing some research, I discovered just how much information there is on the physics of Spider-Man and how elements of Spider-Man can be used as examples for most topics learned in mechanics. For this investigation, I will not be using the horrible cliche and terrible CGI infested mess that Spider-Man 3 is but instead the all around superior Spider-Man movie of Spider-Man 2 to investigate the physics of Spider-Man's web propelled slingshot.  I want to talk about what happens in terms of physics when Spider-Man launches himself across a dista...

Physics of Sound Dampeners and Active Noise Cancellation

Physics of Sound Dampeners and Active Noise Cancellation Sound dampening foam panels in a recording studio. ANC headphones worn by pilots and/or passengers in consumer aviation aircraft.  Acoustic treatment of soundscapes has grown alongside the sound production industry. Whether through absorption panels, diffusors and cloud panels to treat a space or headphones placed directly over the ears of listeners, acoustic treatment comes in many forms. Environments are treated acoustically to absorb excess sound to prevent sound levels from crossing a threshold above which the desired goal cannot be had. Before getting into sound dampening, we must discuss sound. Sound is produced when an object vibrates (a form of oscillation) and temporarily displaces nearby air molecules causing a wave effect as the displaced molecules collide with their neighboring molecules. Sound waves are fluctuations in pressure as the initial displacement of molecules experiences collisions that in ...

Physics of Black Holes...Or Lack Thereof

Isabella Jacavone To comprehend how the universe works, we must dwell into the most basic building blocks of existence; matter, energy, space, and time. NASA's  Physics of the Cosmos program involves cosmology, astrophysics, and fundamental physics intended to answer questions about the elusiveness of complex concepts such as black holes, neutron stars, dark energy, and gravitational waves. In this blog post, I'd like to elaborate on a subject that is very intriguing  to me; Black holes. And more specifically, what would happen if we got near one. A black hole is anything but a hole, but rather an immense amount of matter compacted into an extremely small area. A black hole is caused when, hypothetically, a star four times more massive than our sun collapses into a sphere no bigger than 600 square km. To put that in perspective, that's about the size of New York City. B lack holes were predicted by Einstein's theory of general relativity, which showed that when a...