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What do we get to assume? That the function uses rounding and is linear?
Well what would be ideal is to not be able to assume anything look at the table and generate the formula listed above which predicts future outcomes.
this is called a floor function that rounds down to an integer value. The graph is a step function or piece wise function. Someone asked the other day about ceiling functions that I'd not heard of... I looked it up and its and found out about floor and ceiling functions. the notation is something like |dw:1356938017922:dw| so if you put in a value of H say 155 you get (155 +1)/10 = 15 when rounded down. thats about all I know on these things
I am trying to determine how to go from the table of numbers to the formula but any information that you could provide is appreciated. Thank You.
look up floor function it may help
The floor function rounds the number down. I do not see the connection to determining the formula from the table of data.
B= roundeddown((H+2)/10) will also generate the same table
So, from the given table u cannot find a uniqe formula
It stands to reason that if the formula generates the table that if you have a sufficient amount of the table results there must be way of determining the formula. However based on the fact that no on here has been able to answer this question in quite some time it may not be a universal math formula that can used to get the solution.
I can only think of recursive approaches to this, but no useful formula. This is an interesting problem.
It appears it would have to be recursive due to the way that b relies on the value of h...
I wrote a java application for it the other day but the recursion was too much to calculate. I couldn't get to the 100th cycle.
If anyone can generate a straightforward formula for this I would love to see it!
I would be willing to put some prize money... lol
The thing is, there are multiple solutions to the problem. In fact you could make a continuous polynomial to perfectly match the data.
That is why any program that makes up a best fit curve will ask you to at least narrow it down to a distribution (linear, quadratic, power, exponential, etc).
@LogicalApple Did you use any memoization/caching, or did it have to do redundant recursive calls?
If you could determine THAT equation based on the output, then you must be privy to some mathematical enigma that eludes the rest of it. @wio said there are so many solutions to this...but the original equation here uses a floor function... that makes determining an equation even harder.
No caching just plain recursion. I once tried to program an Ackermann function ...
If you type in the pattern into wolfram alpha with fit in front of it... For example... fit (0,0) (1,5) (2,10) (3,15) it will generate the formula for you but I do not think this formula matches any of those criteria. (linear, quadratic, power or exponential)
@patdistheman Send me a link.
Of what wolfram alpha?
yeah, wolfram alpha coming up with a formula that has a floor function.
I did not reference wolframalpha and a floor function. Just the results of punching fit (0,0) (1,5) (2,10) (3,15) into wolframalpha.
ah, I see.
Although yuo can use the floor function on wolframalpha... http://www.wolframalpha.com/input/?i=floor+9.11
Right, what wolfram does is just tries out multiple distributions and gives you the most reasonable ones.