Drop Location in Bean Machine: Does It Matter?

In summary, the bean machine is designed to simulate a gaussian distribution by dropping balls from the top right corner. The place from which the balls are dropped determines the mean value of the distribution, with the mean being closer to the edge where the balls are dropped. This simulation is a visual representation of mathematical concepts and can be used to demonstrate the concept of a bell curve.
  • #1
iVenky
212
12
In the bean machine, we usually drop the balls from the center of the top right? That's the reason why most of the balls accumulate in the middle bin. If you drop the balls from the top right corner (say) then balls should fall in the bins in the right side, right?

Thanks a lot.
 
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  • #3
jedishrfu said:
yes its supposed to simulate a gaussian distribution

So you mean the place from which you drop the balls is the mean value of the gaussian distribution?
 
  • #4
iVenky said:
So you mean the place from which you drop the balls is the mean value of the gaussian distribution?
Yes, if you're dropping the beans in the centre. If you drop them at the right edge then you'll only get the left half of the Gaussian. Here's a challenge: where will the mean be?
 
  • #5
haruspex said:
Yes, if you're dropping the beans in the centre. If you drop them at the right edge then you'll only get the left half of the Gaussian. Here's a challenge: where will the mean be?

It will still be at zero?
 
  • #7
iVenky said:
In the bean machine, we usually drop the balls from the center of the top right? That's the reason why most of the balls accumulate in the middle bin. If you drop the balls from the top right corner (say) then balls should fall in the bins in the right side, right?

Thanks a lot.

I saw one of those years ago. It's very impressive. The marbles make random bounces to the left or the right; but organize themselves neatly into a bell curve. How do they know how to do that? It's a demonstration that really brings math to life.
 

1. What is the "Bean Machine" and how does it work?

The Bean Machine, also known as the Galton Board, is a device used to demonstrate the concept of probability and randomness. It consists of a board with a series of pegs arranged in a triangular pattern. At the top of the board, a number of balls are dropped, and as they bounce off the pegs, they randomly fall into one of several slots at the bottom of the board.

2. How does the drop location affect the outcome of the Bean Machine?

The drop location in the Bean Machine does not have a direct impact on the outcome. As the balls bounce off the pegs and randomly fall into the slots, the final distribution of the balls will be the same regardless of the drop location.

3. Can the drop location be manipulated to change the outcome?

No, the drop location cannot be manipulated to change the outcome. The randomness of the ball's path ensures that the final distribution will be the same regardless of the initial drop location.

4. Is the drop location important in understanding probability and randomness?

The drop location is not important in understanding probability and randomness. The Bean Machine is used to demonstrate these concepts, and the final distribution of the balls is determined by the laws of probability and not the drop location.

5. Are there any other factors that can affect the outcome of the Bean Machine?

The outcome of the Bean Machine is primarily determined by the number of pegs and slots on the board. Other factors, such as the size and weight of the balls, may also have a slight impact on the outcome, but the drop location is not a significant factor.

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