I've tried all test cases from uDebug and some random test case but could not find out wrong answer.
Is there any corner cases, which i've been not taking?
# | User | Rating |
---|---|---|
1 | tourist | 4009 |
2 | jiangly | 3823 |
3 | Benq | 3738 |
4 | Radewoosh | 3633 |
5 | jqdai0815 | 3620 |
6 | orzdevinwang | 3529 |
7 | ecnerwala | 3446 |
8 | Um_nik | 3396 |
9 | ksun48 | 3390 |
10 | gamegame | 3386 |
# | User | Contrib. |
---|---|---|
1 | cry | 167 |
2 | Um_nik | 163 |
3 | maomao90 | 162 |
3 | atcoder_official | 162 |
5 | adamant | 159 |
6 | -is-this-fft- | 158 |
7 | awoo | 156 |
8 | TheScrasse | 154 |
9 | Dominater069 | 153 |
9 | nor | 153 |
I've tried all test cases from uDebug and some random test case but could not find out wrong answer.
Is there any corner cases, which i've been not taking?
Name |
---|
Not sure what your solution is or why are you taking max but i guess the solution should look something like this :
$$$dp[val][cnt] = \displaystyle\sum_{x=1}^{val} dp[val-x][cnt-1]$$$ with base case $$$dp[0][0] = 1$$$
Where $$$dp[i][j]$$$ means the number of ways to get sum $$$i$$$ with exactly $$$j$$$ coins. You can answer all the other types using these dp values.