func main()
	var n: int :: cui@inputInt()
	var m: int :: cui@inputInt()
	var q: int :: cui@inputInt()
	var seg: @SegmentTree :: (#@SegmentTree).init(m)
	for(1, q)
		var type: int :: cui@inputInt()
		switch(type)
		case 1
			var d: int :: cui@inputInt() - 1
			var p: []int :: #[n]int
			for i(0, n - 1)
				do p[i] :: cui@inputInt()
			end for
			do seg.update(d, (#@Data).init(p))
		case 2
			var s: int :: cui@inputInt()
			var data: @Data :: seg.query(0, s)
			var ans: []int :: #[n]int
			for i(0, n - 1)
				do ans[data.data[i] - 1] :: i
			end for
			for i(0, n - 1)
				do cui@print("\{ans[i] + 1}" ~ (i = n - 1 ?("\n", " ")))
			end for
		case 3
			var l: int :: cui@inputInt() - 1
			var r: int :: cui@inputInt()
			var data: @Data :: seg.query(l, r)
			var sum: int :: 0
			for i(0, n - 1)
				do sum :+ (data.data[i] - 1 - i).abs()
			end for
			do cui@print("\{sum}\n")
		end switch
	end for
end func

class SegmentTree()
	var size: int
	var node: []@Data
	var lasy: []@Data
	+func init(n: int): SegmentTree
		do me.size :: 1
		while(me.size < n)
			do me.size :* 2
		end while
		do me.node :: #[2 * me.size]@Data
		do me.lasy :: ##me.node
		ret me
	end func
	func eval(k: int)
		if(me.lasy[k] =& null)
			ret
		end if
		if(k < me.size - 1)
			do me.lasy[k * 2 + 1] :: me.lasy[k]
			do me.lasy[k * 2 + 2] :: me.lasy[k]
		end if
		do me.node[k] :: me.lasy[k]
		do me.lasy[k] :: null
	end func
	+func update(idx: int, val: @Data)
		do me.updateRange(idx, idx + 1, val)
	end func
	+func updateRange(a: int, b: int, val: @Data)
		do me.updateRangeSub(a, b, val, 0, 0, me.size)
	end func
	+func updateRangeSub(a: int, b: int, val: @Data, k: int, l: int, r: int)
		do me.eval(k)
		if(a <= l & r <= b)
			do me.lasy[k] :: val
			do me.eval(k)
		elif(a < r & l < b)
			do me.updateRangeSub(a, b, val, k * 2 + 1, l, (l + r) / 2)
			do me.updateRangeSub(a, b, val, k * 2 + 2, (l + r) / 2, r)
			do me.node[k] :: me.op(me.node[k * 2 + 1], me.node[k * 2 + 2])
		end if
	end func
	+func query(a: int, b: int): @Data
		ret me.querySub(a, b, 0, 0, me.size)
	end func
	func querySub(a: int, b: int, k: int, l: int, r: int): @Data
		do me.eval(k)
		if(b <= l | r <= a)
			ret null
		end if
		if(a <= l & r <= b)
			ret me.node[k]
		end if
		var vl: @Data :: me.querySub(a, b, 2 * k + 1, l, (l + r) / 2)
		var vr: @Data :: me.querySub(a, b, 2 * k + 2, (l + r) / 2, r)
		ret me.op(vl, vr)
	end func
	+*func toStr(): []char
		var padding: int :: 1
		while(padding <= me.size)
			do padding :* 2
		end while
		do padding :- 1
		var res: []char :: ""
		var s: int :: 0
		var e: int :: 0
		var n: int :: 1
		const digit: int :: 7
		var strNull: []char :: " ".repeat(digit - 6) ~ "invalid"
		while(padding > 0)
			do padding :/ 2
			for i(s, e)
				do res :~ " ".repeat((digit + 1) * padding)
				do res :~ "\{me.node[i] =& null ?("null", me.node[i].toStr())}|"
			end for
			do res :~ "\n"
			do n :* 2
			do s :: e + 1
			do e :: s + n - 1
		end while
		ret res
	end func
	
	func op(d1: @Data, d2: @Data): @Data
		if(d1 =& null)
			ret ##d2
		elif(d2 =& null)
			ret ##d1
		end if
		var res: @Data :: ##d1
		for i(0, ^d1.data - 1)
			do res.data[i] :: d2.data[d1.data[i] - 1]
		end for
		ret res
	end func
end class

class Data()
	+var data: []int
	+func init(arr: []int): Data
		do me.data :: arr
		ret me
	end func
end class