import math._
import scala.util._

object Player extends App {
    def getDirection(input: String): (Int, Int) = {
        input match {
            case "U" => (0, -1)
            case "UR" => (1, -1)
            case "R" => (1, 0)
            case "DR" => (1, 1)
            case "D" => (0, 1)
            case "DL" => (-1, 1)
            case "L" => (-1, 0)
            case "UL" => (-1, -1)
        }
    }

    def findNewRelativePositionOnAxis(direction: Int, min : Int, max : Int, current : Int) : Int = {
        direction match {
            case 1 => (max - current + 1 ) / 2
            case -1 => if(current == 1) -1 else (min - current - 1 ) / 2    //edge case for when the goal is at position 0
            case _ => 0
        }
    }

    def loop(x: Int, y: Int, minX: Int, minY: Int, maxX: Int, maxY: Int): Nothing = {
        val goaldir = getDirection(readLine)

        //Update min and max values to narrow down the search
        val newMaxX = if(goaldir._1 == -1) x else maxX
        val newMaxY = if(goaldir._2 == -1) y else maxY
        val newMinX = if(goaldir._1 == 1) x else minX
        val newMinY = if(goaldir._2 == 1) y else minY

        //Compute the next position
        val newX = x + findNewRelativePositionOnAxis(goaldir._1, newMinX, newMaxX, x)
        val newY = y + findNewRelativePositionOnAxis(goaldir._2, newMinY, newMaxY, y)

        //Send the result
        println(newX + " " + newY)

        loop(newX, newY, newMinX, newMinY, newMaxX, newMaxY)
    }

    // w: width of the building.
    // h: height of the building.
    val Array(width, height) = for(i <- readLine split " ") yield i.toInt
    val Array(x0, y0) = for(i <- readLine split " ") yield i.toInt

    loop(x0, y0, 0, 0, width, height)
}