Mirko has received an interesting homework assignment: to design his own little processor (Mirkoprocessor). The processor has ~N~ registers with indices from ~1~ to ~N~, and each register holds one unsigned ~32~-bit integer in the usual binary format (the possible values range from ~0~ to ~2^{32}-1~).

The processor is capable of executing the following instruction types:

Instruction type	Description	Example
1 K M	Rotate the bits of register ~K~ by ~M~ positions to the right; write the result back to register ~K~.	00000000000000000010001111111011 → (~M =~ 1010) → 11111110110000000000000000001000 (in base 10: ~9211 \to (M = 10) \to 4\,273\,995\,784~)
2 K L	Compute bitwise ~XOR~ of registers ~K~ and ~L~; output the result to the system bus.	00000000000000000000001111000111 ~XOR~ 00000000000001111100000000000111 =00000000000001111100001111000000 (in base 10: ~967 \mathbin{XOR} 507\,911 = 508\,864~)

Mirko has already built a model of the processor, and only then realized that he'd forgotten to include an operation to read the contents of a register. Now, his only option is to execute a large number of type 1 and type 2 instructions and infer the register contents from the results. Having executed a sequence of commands, he has asked you to help him derive the initial register contents consistent with the obtained results.

If there are multiple possibilities for the initial register state combination, find the lexicographically smallest one. (If two combinations have equal values in the first ~K-1~ registers and different values in register ~K~, the lexicographically smaller combination is the one with the smaller value in register ~K~.)

Input Specification

The first line of input contains two positive integers: ~N~ ~(2 \le N \le 100\,000)~, the number of registers, and ~E~ ~(1 \le E \le 100\,000)~, the number of executed instructions.

The remaining input lines describe the instructions in the order that they were executed by Mirkoprocessor, formatted as described in the table above, one per line. All instructions are legal (the following conditions hold: ~1 \le K, L \le N, 0 \le M < 32~). Each instruction of type 2 is followed by another line containing a positive integer between ~0~ and ~2^{32}-1~, inclusive – the result of that operation (the bitwise ~XOR~ value) in base 10.

In test data worth a total of ~64~ points, the numbers ~N~ and ~E~ will be smaller than ~1000~.

Output Specification

The first and only line of output must contain the required ~N~ register values, separated by spaces. If there is no possible combination of initial values consistent with input, output only the number -1, to notify Mirko that his processor has a bug.

Sample Input 1

3 3
2 1 2
1
2 1 3
2
2 2 3
3

Sample Output 1

0 1 2

Sample Input 2

4 6
2 4 2
3
2 4 1
6
1 3 1
2 3 1
2
1 2 2
2 2 3
7

Sample Output 2

5 0 14 3

Sample Input 3

5 6
2 4 2
10
2 5 3
2
2 2 3
1
2 1 4
3
1 3 1
2 3 4
2147483663

Sample Output 3

15 6 7 12 5