Baseball has been America’s pastime since its early beginnings. Over time, fans have watched the game evolve. In many cases, the game seems to boil down to a battle between pitchers. Franchises competing for a spot in the World Series seem to know this, and many (such as the San Francisco Giants) have heavily stacked their pitching rosters with notable talent. So, physiologically speaking, how do pitchers do what they do, pitch after pitch after pitch? And what parts of their bodies are most prone to injuries?
These are complex questions. The obvious place to begin is with the arm, shoulder and back muscles. The most vulnerable joint in pitching is the glenohumeral joint, which is commonly known as the ball and socket of the shoulder. This joint has the greatest range of motion of any joint in the body. It is directly supported by four rotator cuff muscles that attach with tough, sinuous tendons. The pectoral muscle group and the lassitimus dorsi are larger muscles, located in the front and back of the shoulder. They help stabilize the joint and help keep it from over-rotating and causing injury.
These and other muscle groups work to gather and release energy during a pitch, and others counter the whipping motion of throwing the ball, acting to decelerate and prevent the arm from injury. In addition to the muscles used in the back and shoulder, leg and core body muscles significantly contribute to the power behind the pitch. It is this symphony of muscles working in tandem that allows pitchers to throw 100 mph pitches.
Read more about the basics of pitching and physiology or learn the technical physiology behind pitching.
Articles by Josh Silvernagel.
In biomechanics, systems in motion — such as the impact of a ball on a player’s head — are described or “modeled” by mathematical differential equations. For example, these equations can show the relationship between the acceleration or force of the ball to the head at impact, and the change in shape of brain tissue in response to that form. The solution to these equations provides information that could be used to establish new safety regulations or adequate sports gear for players.
Current studies show that heading the ball may not be as much of a concern as physicians and parents thought, although it is not fully understood how repetitive head shooting, through many years of play, affects players. Further research will continue to help treat and prevent injuries, and improve athlete performance through individualized coaching.
Learn more about the basics of head injuries and biomechanics or read the more technical mathematical explanation.
Articles by Cristian Clavijo.
Have you ever wondered how professional tennis players are able to put a serve right on the line time after time? How about how a professional golfer is able to pull off pin-point shots with extreme consistency? Aside from intense focus, these athletes are using motor learning, also known as muscle memory. This is essentially teaching your muscles how to repeat movements or techniques over and over.
Learn the basics of how muscle memory matters.
Articles by Kenny Morley.
Professional athletes use a unique combination of speed, agility, strength, and power to stand apart from the rest. This winning combination of traits is largely due to the slow-twitch (ST) and fast-twitch (FT) fibers found in their muscles. ST fibers are important for endurance, as they allow the muscles to contract at a slow rate for a long time. On the other hand, FT fibers contract fast and hard, but only for a short time, and are important for sprinting. The body first turns to the ST fibers for movement, then focuses on the FT fibers in their legs, calves, and buttocks as the athlete increases speed. A combination of balance, lateral movement, T-drill exercises, and core training are important to increase this muscle response time and maximize gains.
Read about basic muscle fiber and performance or learn the technical physiological explanation.
Articles by Josh Silvernagel.