It is not possible to give all the multiples of any number (other than zero) since there is no end to them.
If x were the largest multiple of 145 then
x+145 is a multiple of 145 and it is larger than x.
So x is not the largest multiple of 145. So there are an infinite number of multiples.
The first 15 multiples of 145:
145, 290, 435, 580, 725, 870, 1015, 1160, 1305, 1450, 1595, 1740, 1885, 2030, 2175 . . .
The multiples of 145 (which are infinite) are all divisible by 145, including these: 145, 290, 435, 580, 725, 870, 1015, 1160, 1305 . . .
The multiples of 145 (which are infinite) are all divisible by 145 , including these: 290, 435, 580, 725, 870, 1015, 1160, 1305, 1450 . . .
The first 15 multiples of 145: 145, 290, 435, 580, 725, 870, 1015, 1160, 1305, 1450, 1595, 1740, 1885, 2030, 2175 . . .
Common multiples include any multiple of 870.
The multiples of 29 are numbers that can be divided evenly by 29 without leaving a remainder. These multiples follow a pattern where each multiple is obtained by multiplying 29 by a natural number (1, 2, 3, ...). So, the multiples of 29 are 29, 58, 87, 116, 145, and so on.
35, 70, 115, 145, 180...
145, 290, 435, 580, 725, 870, 1015, 1160, 1305, 1450, 1595, . . .
29, 58, 87, 116 & 145
The total number is infinite. The first 10 are: 145, 290, 435, 580, 725, 870, 1015, 1160, 1305, 1450 . . .
They are all the multiples of 16.They are all the multiples of 16.They are all the multiples of 16.They are all the multiples of 16.
The common numbers of 65 and 145 are the multiples of their least common multiple (LCM). To find the LCM, we first determine the prime factorizations: 65 is 5 × 13, and 145 is 5 × 29. The LCM is 5 × 13 × 29 = 1895, so the common numbers are multiples of 1895, such as 1895, 3790, 5685, and so on.
29, 58, 87, 116, 145, 174, 203, 232, 261, 290 . . .