Almost everybody knows what kayaking and a majority of the population probably have kayaked before. However, like many other things in the world, people may have not thought of the physics of kayaking which is a perfect example of Newtons Third Law. While paddling, you are applying a force on the water by torque on the paddle. If you have ever experimented with paddling, if you hold further towards the end of the paddle, if is easier to go faster. However, if you choke up the the paddle alot you
In my eyes, the sport that uses the principles of physics most simply is Golf. Kinematics and projectile motion are the biggest components of physics that are applied in golf due to the objective of hitting a ball into a small hole. First, the angle at which each club is tilted determines the total distance the ball will fly. A club with a very low angle of tilt, such as a driver, will cause the ball to fly the farthest. But the angle isn't the only factor to distance. Comparing a driver to an i
As you can guess, this is my first blog for the AP Physics C year (one of about 40). In my free time I dabble in the sports of soccer, basketball and tennis and although I am not the best or star player in any of the sports, I would consider my self consistent and fairly talented in them all. During the scarce moments in my life during which I am not playing sports, I am either doing homework, playing FIFA on Xbox, or sitting on my phone using Snapchat, Twitter and/or Instagram. I have four si
As you may have figured out already, I tend to enjoy writing these blogs about sports and fairly dangerous activities...so I will continue this trend with curling. Although not the most exciting sport to watch, playing it is a whole different story due to two main physics principals: friction and collisions. Curling is played on a ice surface to allow the stone to glide easily and smoothly to the target because the friction between the ice and the stone is very little. If you've ever seen even o
In the history of the world, there have been millions of bombs dropped by any nation during a war. However, what most people never think about is the physics behind dropping a bomb. The bombardier must take into consideration the speed at which they are flying, the horizontal distance away from their target and the height at which they are flying. Say, for example, the average B-42 bomber has a cruise altitude of 39,00 ft (12,000 m) and a cruise speed of 545 mph (926 kph). If a bomb were to be d
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