Oh, what a happy little question! On a 3-number lock, there are 1,000 possible combinations. Isn't that just wonderful to think about? Just remember to take your time and enjoy the process of finding the right combination, like painting a beautiful landscape!
There are 6C3 = 20 such combinations.
You can make 5 combinations of 1 number, 10 combinations of 2 numbers, 10 combinations of 3 numbers, 5 combinations of 4 numbers, and 1 combinations of 5 number. 31 in all.
There are 7C4 = 7!/(4!*3!) = 7*6*5/(3*2*1) = 35 combinations.
13579
To determine the number of combinations of 3 words, we need to know the total number of words available. Let's say we have a pool of n words. The formula to calculate the number of combinations of 3 words without repetition is n! / (3!(n-3)!), where "!" denotes factorial. This formula accounts for the number of ways we can select 3 words from a pool of n without repetition.
Just one. * * * * * Depends on how many numbers are on each ring. If there are x numbers, then the total number of combinations (actually they are permutations) is x*x*x or x3.
The total number of possible lock combinations depends on the number of digits and the range of each digit. For a standard 3-digit lock using numbers 0-9, there are 10 options for each digit, resulting in 1,000 possible combinations (000 to 999). If the lock has a different number of digits or uses letters, the calculation would vary accordingly. For example, a 4-digit lock would have 10,000 combinations.
For a combination lock using 3 numbers, each ranging from 0 to 20, there are 21 possible choices for each number (including 0). Therefore, the total number of combinations can be calculated as 21 (choices for the first number) × 21 (choices for the second number) × 21 (choices for the third number), which equals 21^3. This results in 9,261 possible combinations.
There are 6C3 = 20 such combinations.
A Dudley lock typically has a combination that consists of a series of numbers or letters set on rotating dials. The number of possible combinations depends on the number of dials and the range of numbers or letters each dial can display. For example, if a Dudley lock has 3 dials with numbers ranging from 0 to 9, there would be 10^3 (1,000) possible combinations. The specific configuration of a Dudley lock can vary, so it's essential to know the number of dials and their ranges for an accurate calculation.
10.
All the possible digits (10 of them; 0-9) are multiplied by themselves by the number of digits that can be shown in the lock. (3) This is 103, or 1,000. This certainly shows why guessing is not a good way to break into a numerical lock, especially since three is a rather low number of digits for one!
Oh, dude, you're asking me to do math now? Like, okay, fine. So, for a 3-number lock, you have 10 options for each digit (0-9), so it's 10x10x10, which is 1,000 possible combinations. There you go, math wizard.
I am assuming you mean 3-number combinations rather than 3 digit combinations. Otherwise you have to treat 21 as a 2-digit number and equate it to 1-and-2. There are 21C3 combinations = 21*20*19/(3*2*1) = 7980 combinations.
You can make 5 combinations of 1 number, 10 combinations of 2 numbers, 10 combinations of 3 numbers, 5 combinations of 4 numbers, and 1 combinations of 5 number. 31 in all.
A standard Master Lock combination lock typically has a 3-digit combination, but some models may feature 4-digit combinations. The specific number of digits can vary depending on the type of lock, so it's important to check the specific model for its combination requirements.
You Can Create 999 Number combinations