Discrete probability. It helps if the all the outcomes in the sample space are equally probable but that is not a necessity.
To determine the likelihood of the spinner landing on the blue space, you need to know the total number of spaces on the spinner and how many of those spaces are blue. The probability can be calculated by dividing the number of blue spaces by the total number of spaces. For example, if there are 2 blue spaces out of 10 total spaces, the probability would be 2 out of 10, or 20%. Without specific numbers, it’s impossible to give a precise likelihood.
0.75%
Any shape tesselates any of its covering spaces.
depends on how many 4's and how many total spaces, assuming they are all equal size. If not then it depends on area of each sector.
Suppose the moves are based on throws of a regular die. A move ahead of 4 spaces can be achieved by for moves of 1 each, two of 1 and one of 2, one of 1 and one of 3, two of 2 or one of 4. So the probability of these outcomes is (1/6)4 + 3*(1/6)3 + 2*(1/6)2 + (1/6)2 + (1/6) = 0.2647 approx.
Classical Probability!
Theoretical probability.
To determine the likelihood of the spinner landing on the blue space, you need to know the total number of spaces on the spinner and how many of those spaces are blue. The probability can be calculated by dividing the number of blue spaces by the total number of spaces. For example, if there are 2 blue spaces out of 10 total spaces, the probability would be 2 out of 10, or 20%. Without specific numbers, it’s impossible to give a precise likelihood.
0.75%
Robert M. Thrall has written: 'Vector spaces and matrices' -- subject(s): Vector spaces, Matrices 'A generalisation of numerical utilities 1'
Intermolecular spaces refer to the empty spaces or gaps between molecules in a substance. These spaces determine the physical properties of the substance, such as density and compressibility. The size of intermolecular spaces can affect how closely packed molecules are in a material.
Empty space - there is a hypothetical probability that the spaces between stellar objects can be filled with "dark matter".
Buy some with blak spaces for Where What and When. Make sure they are plain or the decoration is neutral.
Demetrios A. Kappos has written: 'Probability algebras and stochastic spaces' -- subject(s): Boolean Algebra, Probabilities
Any shape tesselates any of its covering spaces.
depends on how many 4's and how many total spaces, assuming they are all equal size. If not then it depends on area of each sector.
all that matters in this problem, is that 2 of the 13 spaces are orange. On the first spin, the odds are 11:2 against Jake getting the orange space. On the second spin, the result of the first spin has no relevance or influence at all, so the odds are still 11:2 against. Why is this question flagging up in "breakups"?