In order to apply our understandings of kinetic and potential energy, we built a rollercoaster. This helped us get a real life understanding as to how these scientific concepts work. Some things that we learned while doing this lab is that having different sized hills in different areas of the coaster will help the marble to keep moving. When building our coaster, we had a lot of trial and error as to how we would build the two hills. We put the first hill immediately after the loop to give the ball enough momentum to keep going. By doing this, we were able to have a higher hill, which in turn made the marble able to turn faster around the first turn, giving the ball more momentum. We realized soon that having a bumpy first hill would cause …show more content…
In order to slow down the marble at the end, we added a little bit of cotton. This causes friction to increase and the ball to slow to a smooth stop. Are track definitely isn’t the smoothest. With all of the dowels and glue, our track has become a little bumpy and as our roller coaster sways more, the usable energy lost increases along with friction. Using the first turn as an example, the PE was .035 joules and the KE was .003 joules. This shows that our PE vs. KE is fairly different. The usable energy lost was .025 j, which shows that our roller coaster had a good amount of friction. Our total energy at the start of our coaster was .063, with the same potential energy. As the roller coaster ended and more friction occur, the marble lost its momentum and the total energy and usable energy lost became the same. Some of the error in calculations is being able to time the marble just right, as it is hard to see. This is a human error that probably can’t be fixed. The area of our roller coaster that worked really well was our loop because it was very smooth and the beginning had a long drop. Something we could’ve improved on was the
How Mass affects Acceleration down an Incline Sabeena Jagdeo, Brianna O'Donnell, Alec Wigdahl Problem Statement: In this lab some friends are wondering if a roller coaster's acceleration will decrease with less mass in the roller coaster. The purpose is to test whether the mass of the roller coaster impacts its acceleration. Prediction: The roller coasters acceleration will stay constant whether the mass of the roller coaster changes our not. This is true because acceleration is represented by velocity divided by time in equation one.
No clicks, only muffled screams. This rollercoaster did not plummet on the path, no, it tipped off the tracks. It was suspended in mid-air only for seconds, before gravity grasped its meaty hands around the car and forced it downwards. The janitor kept his whistling, busy in his thoughts; not to blame. It was silent until too late.
I drew a roller coaster called Gum Drop Forest. The riders will experience crazy loops and turns. At one point the riders are upside down. The height of Gum Drop Forest is three-hundred feet tall. There is six cars that visitors can ride on which weighs one thousand, three hundred twenty-two.
The nail, string, nail, and balloon were both required to be used in our project. The fourth step,golf ball released. The slide was connected to hot wheels tracks. We had some jenga pieces and duct tape holding the marble slide up. Also, we hammered the slide to the wood with the nail that acted as a pulley.
Acceleration is more important than speed when trying to make a roller coaster exciting. Acceleration is defined as the rate of change of velocity; the act changing velocity; speeding up, slowing down and/or changing direction. An exciting roller coaster must include all of these; change in direction, speeding up, and slowing down. An example of how slowing down makes roller coasters exciting is that it adds suspense. Many people find that the point at which the roller coaster reaches the summit is the most exciting part.
You jump inside the biggest and longest coaster in the park, giddy with excitement. As it rushes to the top, it slows down, as expected, but instead of getting faster once
The domino will have both Kinetic and Potential energy involved, since I apply kinetic energy to the domino, and the domino topples down because of the Kinetic Energy transferring to
Jacob Hendricks Ms. Kujawski Stem Institute May 18,2015 Roller Coasters Roller coasters are very interesting but very confusing when you think of the engineering part of it. Roller coasters have been around for a long time. Rollercoasters are fascinating because they are controlled by physics. Understanding roller coasters helps people understand physics and gravity.
This roller coaster is a mix of new advanced technology and fun adventure. For example, you will experience thrills like never before.
Millennium Force holds the fifth longest roller coaster slot. Cedar Point’s Mean Streak roller coaster is the sixth tallest wooden roller coaster, has the fifth longest drop, and is the eighth fastest in the world. It is also the fourth longest wooden roller coaster. The Gatekeeper, Cedar Point’s newest roller coaster, is also the tallest inverted roller coaster in the world. Cedar Point not only has these world records, but it also beats the number of record Kings Island
We even installed amazing sprinkler technology at this turn that sprays water on you in every direction. Now this is actually my favorite part of the ride, once you reach the end of the turn, you spiral down three loops, while experiencing back to back centripetal forces, which also raise your adrenaline, all while you are being sprinkled by water at the top of the spirals. After you are so pumped up from gaining so much kinetic energy through the centripetal acceleration from the spirals, you lose all that momentum due to friction, and have to slowly be pulled up the next hill by a pulling force of a pulley system. As you slowly work your way up the slope at an average speed of 10 mph, you unexpectedly move forward and drop, the you go forward, go up, go forward drop down, and so on, 3 times in a row. All while you gain momentum, and lose it, gain it and lose it, and so on.
If you are vehement about your flying coaster, buy more and set up some drinks for your friends. The look on their faces when their drinks are flown in from your kitchen will be priceless! The Flying Coaster is built strong so that it is palpable
As the marble slides down the first drop it will lose much of its potential energy corresponding to the loss of height. The marble subsequently gains kinetic energy – kinetic energy is contingent to the mass and the velocity of an object. The marble speeds up as it loses height, consequently, their potential energy is transformed into kinetic energy. Newton’s Second Law states that an object’s net external force is equal to its mass times its acceleration; simply, the acceleration is proportional to the force applied and also the mass of the object.
In this experiment three gummy bears were put in different solutions to observe the effect of osmosis on them. The independent variable in this situation are the following types of water: tap, salt, and sugar. The dependent variable is the change in mass and volume from all three gummy bears. The gummy bear brand, the environment, and the amount of time in the solution are the constants of the experiment. After the experiment is competed, one can determine how the osmosis changes the gummy bears.
The only problem was that James had no lap. As the roller coaster reached a drop of 208 feet he fell out of the roller coaster to his death on the ground below (Glove). Over the year’s roller coasters have become safer. On Sunday July 19 1981 a 16-year-old girl fell from a roller coaster to her death (“U.S Roller Coaster Fatalities