This is an interactive problem.
With the field of artificial intelligence on the rise, you have decided to take a detour and instead look at the human mind again. You have realized that the emotions of your best friend, Adamant, can be encoded as a hidden polynomial with integer coefficients; call it $$$P(x)$$$. To know more about $$$P(x)$$$, you can ask everyday questions from Adamant while obtaining mathematical values related to $$$P(x)$$$ from his answers.
There are $$$N$$$ questions that you may ask, numbered $$$1$$$ through $$$N$$$. Whenever you ask the $$$k$$$-th question, you are told how many of the integers $$$P(1), P(2), \dots, P(k)$$$ are divisible by $$$k$$$.
Of course, it is impossible to fully understand a person simply from talking to them, but you would like to predict how Adamant might behave in certain scenarios.
There are $$$N$$$ possible scenarios, numbered $$$1$$$ through $$$N$$$. In the $$$k$$$-th scenario, Adamant's behavior is fully determined by the number of integers among $$$P(1), P(2), \dots, P(k)$$$, which are co-prime with $$$k$$$.
You have to predict Adamant's behavior in each scenario while asking him at most $$$10^4$$$ questions.
The interaction begins with the interactor providing you with the number $$$N$$$ ($$$1 \leq N \leq 10^5$$$), which serves as the upper limit on the questions and the number of scenarios. You can then begin asking questions.
To ask the $$$k$$$-th question ($$$1 \leq k \leq N$$$), print "? k", without quotes. Afterward, you should read a single integer, the answer to the $$$k$$$-th question. Don't forget to flush the output after printing a question!
You are only allowed to ask at most $$$10^4$$$ questions.
When you have fully determined Adamant's behavior in all possible scenarios, print "! ", followed by $$$N$$$ integers. The $$$k$$$-th integer must be the number of integers $$$j$$$, such that $$$1 \leq j \leq k$$$ and $$$\gcd(P(j), k) = 1$$$.
For each test, the polynomial $$$P(x)$$$ is chosen in advance and does not change.
3 1 0
? 2 ? 3 ! 1 1 3
6 1 1 0
? 1 ? 5 ? 6 ! 1 1 3 2 4 3
In the first sample, the polynomial is $$$P(x) = x^2+1$$$. In the first query, the answer is $$$1$$$, as among $$$1^2+1$$$ and $$$2^2+1$$$, exactly one is divisible by $$$2$$$.
In the second example, the hidden polynomial $$$P(x)$$$ is $$$3x^3+2$$$.
To flush the output, use: