Fast Debugger

Recently you received an old computer. This old computer has an 8-bit CPU with four registers: ax, bx, cx, dx, and only supports some simple instructions. For those who are not familiar with assembly language, here is a programming guide.

This CPU has four 8-bit registers: ax, bx, cx, dx. You can treat them as variables storing integers within $\[0,255]$.

Only three kinds of bitwise operation are supported by this CPU, bitwise-or/and/xor. Each bitwise operation has two kinds of instructions.

Type 1: Both operands are registers, written as "or r1 r2", where both r1 and r2 are one of the register names ax, bx, cx, dx (r1 and r2 may refer to the same register). This instruction will set the value of r1 to the result of r1 bitwise-or r2. (Similarly, bitwise-and and bitwise-xor instructions are written as "and r1 r2" and "xor r1 r2").

Type 2: One of the operands is immediate, written as "ori r imm", where r is one of the register names ax, bx, cx, dx, and imm is a constant in $\[0,255]$ given in the instruction. This instruction will set the value of r to the result of r bitwise-or imm. (Similarly, bitwise-and and bitwise-xor instructions are written as "andi r imm" and "xori r imm").

Loops are not supported by the CPU, but the assembler implemented an easy loop for programmers. If the assembler sees a "repeat $m$" statement, it will automatically repeat the contents of the repeat block, a total of $m$ times. The format is shown below.

repeat m
<repeat block>
end

Here, $m$ is a constant in $\[2,255]$ given in the statement, and <repeat block> consists of one or more statements that can be either bitwise instructions or repeat--end statements.

Now you want to write a simulator on your new laptop which is much faster than the old computer.

Your simulator will be given a valid program and $q$ queries. Each query consists of five integers $k$, $a\_0$, $b\_0$, $c\_0$, $d\_0$. Initially, the registers are set to the given values: ax$= a\_0$, bx$= b\_0$, cx$= c\_0$, dx$= d\_0$. You should output the values of registers ax, bx, cx, dx after the program executes $k$ bitwise instructions.

The first line of input contains two integers $n$ and $q$ ($1 \leq n \leq 12\\,000$; $1 \leq q \leq 10\\,000$), denoting the number of instructions and the number of queries.

Then follow $n$ lines. Each line is an instruction. The format is described above.

Each of the following $q$ lines contains five integers $k$, $a\_0$, $b\_0$, $c\_0$, $d\_0$ ($1 \leq k \leq 10^9$; $0 \leq a\_0, b\_0, c\_0, d\_0 \leq 255$), denoting a query for the value of registers after evaluating $k$ bitwise operations. It is guaranteed that the program does not terminate before executing $k$ bitwise instructions.

Output $q$ lines. The $i$-th line must contain four integers $a\_k$, $b\_k$, $c\_k$, $d\_k$, denoting the values of registers ax, bx, cx, dx after the program executes $k$ bitwise instructions.