Problem
: Where's my car!
The year is 2050. The
population surge has taken over our metropolitan cities. High rise buildings
are on a rise. And as usual, with the increase in population, the problem of
parking in the city has increased manifold.
To reduce the problem of parking, the government has built multistorey parking lots all over the city. Imagine the city as an XY grid. And there are roads connecting all the neighbouring grid points except diagonals. And there is a predefined intersection interval 'I' for parking lots such that at every I th intersection, there is a parking lot, starting from (0,0). For example, for a city of grid size 4x7 and I=3, you'll have 6 parking lots at (0,0), (0,3), (0,6), (3,0), (3,3) and (3,6).
Now all the cars have been fitted with selfdriving mechanism. So whenever you get out of a car at any point in the grid, it will choose the nearest parking lot and automatically drive to it. If two parking lots are at equal distance from where you left, it will choose the parking lot with the lowest Xcoordinate first, and if Xcoordinates are same, the lowest Ycoordinate.
At the parking lot, the cars will start getting parked from the ground floor and in the first available slot. As each floor gets filled up, newer cars will start parking on floors above them. Assume all the parking lots in the city have unlimited number of floors and a common maximum capacity of each floor 'C'.
Now whenever the owner wants to know where his car is parked or wants to retrieve it, he'll open the app 'Where's my car!' and insert his car number and the app will tell him the coordinates of the parking lot, the floor number and the slot number.
To reduce the problem of parking, the government has built multistorey parking lots all over the city. Imagine the city as an XY grid. And there are roads connecting all the neighbouring grid points except diagonals. And there is a predefined intersection interval 'I' for parking lots such that at every I th intersection, there is a parking lot, starting from (0,0). For example, for a city of grid size 4x7 and I=3, you'll have 6 parking lots at (0,0), (0,3), (0,6), (3,0), (3,3) and (3,6).
Now all the cars have been fitted with selfdriving mechanism. So whenever you get out of a car at any point in the grid, it will choose the nearest parking lot and automatically drive to it. If two parking lots are at equal distance from where you left, it will choose the parking lot with the lowest Xcoordinate first, and if Xcoordinates are same, the lowest Ycoordinate.
At the parking lot, the cars will start getting parked from the ground floor and in the first available slot. As each floor gets filled up, newer cars will start parking on floors above them. Assume all the parking lots in the city have unlimited number of floors and a common maximum capacity of each floor 'C'.
Now whenever the owner wants to know where his car is parked or wants to retrieve it, he'll open the app 'Where's my car!' and insert his car number and the app will tell him the coordinates of the parking lot, the floor number and the slot number.
Input Format:
The first line will contain a positive integer T determining the number of test cases.
For each test case, the first line will contain four positive integers X, Y, I and C, delimited by space
where,
The first line will contain a positive integer T determining the number of test cases.
For each test case, the first line will contain four positive integers X, Y, I and C, delimited by space
where,
 X,Y
denote the grid size of the city,
 I
denotes the intersection interval for parking lots
 C
denotes the maximum capacity of a floor in all the parking lots in the city.
The next line will contain a positive integer
N denoting the number of events following.
 An
event can be parking of a car(P) or retrieval of a car(R ).
 The
next N lines will begin with either a character 'P' or 'R'.
 If
the line begins with P, it will also contain two positive integers, x and
y denoting the current coordinate of the car where it is left off and has
to drive itself to the nearest parking lot, and the car number S which is
a unique 10digit number for each car and can contain a mix of numbers and
alphabet.
 If
the line begins with 'R', it will contain the car number to retrieve.
Output Format:
For each test case, output the following.
First output the total number of parking lots in the city.
Then, for every retrieval event in the input list, output 4 space separated integers, p,q,r,s where
For each test case, output the following.
First output the total number of parking lots in the city.
Then, for every retrieval event in the input list, output 4 space separated integers, p,q,r,s where
 p,q
is the coordinate of the parking lot where the car is parked in,
 r
is the floor number and s is the slot number.
 For
brevity, output each number p,q,r,s, modulo 10.
Constraints:
1. 1<=T<=10
2. 1<= X,Y
< 2,000,000,000
3. 1<=
C,N < 100,000
4. 1<=
I <= X,Y
5. 0<=
p <= X
6. 0<=
q <= Y
7. Max no.
of parking lots < 1,000,000
Sample Input and Output
SNo.

Input

Output

1

1 4 7 2 2 5 P 1 1 MH04CZ2123 P 3 2 BR11HY2863 R MH04CZ2123 P 3 3 KA14NU7644 R KA14NU7644 
12 0 0 0 1 2 2 0 2 
2

1 4 7 2 2 5 P 2 1 MH04CZ2123 P 3 5 BR11HY2863 R MH04CZ2123 P 3 4 KA14NU7644 R KA14NU7644 
12 2 0 0 1 2 4 0 2 