Alabang Hills Village, Alabang, Muntinlupa
2012-2013
In Partial Fulfilment of the Requirements in Physics
RUBBER – POWERED CAR
Bohr
Sy, Marc Gregory
Coronado, Liz Anne Victoria Manaco
Jo, Hyojeong Dulnuan
Ms. Sarah Zaragoza
Physics Teacher
Picture of the Car:
List of Materials:
Illustration Board
Used CD’s
Styro
Rubber Band
Clay
BBQ Sticks
Bottle Caps
Paper Clip
Paper
Data & Results
Procedure in Constructing the Car:
1. Cut the styro and roll the papers and glue the papers to the styro.
2. Cut the illustration board the same size as your cd.
3. Insert the bbq stick in the paper rolls
4. Make a hole in the bottle caps
5. Glue the bottle caps in the cd
6. Insert the cd into the bbq sticks.
7. Put clay in the end of the sticks
8. Put rubber in the styro and paper clip
9. Glue the illustration board to the styro.
TRIAL
DISTANCE
TIME
SPEED
1
0.61 m
5.27 s
0.61/5.27 = 0.12 m/s
2
0.92 m
5.76 s
0.92/5.76 = 0.16 m/s
3
0.58 m
3.59 s
0.58/3.59 = 0.16 m/s
4
0.71 m
5.60 s
0.71/5.60 = 0.13 m/s
5
2.35 m
13.44 s
2.35/13.44 = 0.17 m/s
Graph: d (m)
3 5
2
1 2
0.90
0.80 4 0. 70 1
0 .60 3 0. 50
1 t (s) 1 2 3 4 5 6 7 8 9 10 11 12 13
Explanation:
The first trial of our car is 0.61 m for 5.27 s. The second trial of our car is 0.92 m for 5.76 s. It went further. The third trial of our car is 0.58 m for 3.59 s. It decreased in time and distance. The fourth trial of our car is 0.71 m for 5.60 s. It went further again. The fifth trial of our car is 2.35 m for 13.44 s it went further and the time sped up. Forces acting on the car while at rest:
Forces acting on the car while in motion:
Conclusion and Recommendation:
How does the design of a “rubber-powered car”