結果
問題 | No.1059 素敵な集合 |
ユーザー | yuly3 |
提出日時 | 2021-05-15 03:01:56 |
言語 | Nim (2.0.2) |
結果 |
CE
(最新)
AC
(最初)
|
実行時間 | - |
コード長 | 5,006 bytes |
コンパイル時間 | 944 ms |
コンパイル使用メモリ | 72,664 KB |
最終ジャッジ日時 | 2024-11-15 01:05:04 |
合計ジャッジ時間 | 1,463 ms |
ジャッジサーバーID (参考情報) |
judge3 / judge5 |
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コンパイルエラー時のメッセージ・ソースコードは、提出者また管理者しか表示できないようにしております。(リジャッジ後のコンパイルエラーは公開されます)
ただし、clay言語の場合は開発者のデバッグのため、公開されます。
ただし、clay言語の場合は開発者のデバッグのため、公開されます。
コンパイルメッセージ
/home/judge/data/code/Main.nim(137, 21) Error: type mismatch: got 'seq[int]' for 'inputInts()' but expected 'tuple'
ソースコード
import algorithm, bitops, deques, heapqueue, math, macros, sets, sequtils, strformat, strutils, sugar, tables proc transLastStmt(n, res, bracketExpr: NimNode): (NimNode, NimNode, NimNode) = # Looks for the last statement of the last statement, etc... case n.kind of nnkIfExpr, nnkIfStmt, nnkTryStmt, nnkCaseStmt: result[0] = copyNimTree(n) result[1] = copyNimTree(n) result[2] = copyNimTree(n) for i in ord(n.kind == nnkCaseStmt)..<n.len: (result[0][i], result[1][^1], result[2][^1]) = transLastStmt(n[i], res, bracketExpr) of nnkStmtList, nnkStmtListExpr, nnkBlockStmt, nnkBlockExpr, nnkWhileStmt, nnkForStmt, nnkElifBranch, nnkElse, nnkElifExpr, nnkOfBranch, nnkExceptBranch: result[0] = copyNimTree(n) result[1] = copyNimTree(n) result[2] = copyNimTree(n) if n.len >= 1: (result[0][^1], result[1][^1], result[2][^1]) = transLastStmt(n[^1], res, bracketExpr) of nnkTableConstr: result[1] = n[0][0] result[2] = n[0][1] if bracketExpr.len == 1: bracketExpr.add([newCall(bindSym"typeof", newEmptyNode()), newCall( bindSym"typeof", newEmptyNode())]) template adder(res, k, v) = res[k] = v result[0] = getAst(adder(res, n[0][0], n[0][1])) of nnkCurly: result[2] = n[0] if bracketExpr.len == 1: bracketExpr.add(newCall(bindSym"typeof", newEmptyNode())) template adder(res, v) = res.incl(v) result[0] = getAst(adder(res, n[0])) else: result[2] = n if bracketExpr.len == 1: bracketExpr.add(newCall(bindSym"typeof", newEmptyNode())) template adder(res, v) = res.add(v) result[0] = getAst(adder(res, n)) macro collect*(init, body: untyped): untyped = runnableExamples: import sets, tables let data = @["bird", "word"] ## seq: let k = collect(newSeq): for i, d in data.pairs: if i mod 2 == 0: d assert k == @["bird"] ## seq with initialSize: let x = collect(newSeqOfCap(4)): for i, d in data.pairs: if i mod 2 == 0: d assert x == @["bird"] ## HashSet: let y = initHashSet.collect: for d in data.items: {d} assert y == data.toHashSet ## Table: let z = collect(initTable(2)): for i, d in data.pairs: {i: d} assert z == {0: "bird", 1: "word"}.toTable let res = genSym(nskVar, "collectResult") expectKind init, {nnkCall, nnkIdent, nnkSym} let bracketExpr = newTree(nnkBracketExpr, if init.kind == nnkCall: init[0] else: init) let (resBody, keyType, valueType) = transLastStmt(body, res, bracketExpr) if bracketExpr.len == 3: bracketExpr[1][1] = keyType bracketExpr[2][1] = valueType else: bracketExpr[1][1] = valueType let call = newTree(nnkCall, bracketExpr) if init.kind == nnkCall: for i in 1 ..< init.len: call.add init[i] result = newTree(nnkStmtListExpr, newVarStmt(res, call), resBody, res) proc input*(): string {.inline.} = stdin.readLine proc inputs*(): seq[string] {.inline.} = stdin.readLine.split proc inputInt*(): int {.inline.} = stdin.readLine.parseInt proc inputInts*(): seq[int] {.inline.} = stdin.readLine.split.map(parseInt) proc chmax*[T: SomeNumber](n: var T, m: T) {.inline.} = n = max(n, m) proc chmin*[T: SomeNumber](n: var T, m: T) {.inline.} = n = min(n, m) proc `%=`*[T: SomeInteger](n: var T, m: T) {.inline.} = n = floorMod(n, m) when not declared ATCODER_UNIONFIND_HPP: const ATCODER_UNIONFIND_HPP* = 1 type UnionFind* = ref object n: Positive parents: seq[int] proc initUnionFind*(n: Positive): UnionFind = return UnionFind(n: n, parents: newSeqWith(n, -1)) proc find*(self: var UnionFind, x: Natural): Natural = if self.parents[x] < 0: return x else: self.parents[x] = self.find(self.parents[x]) return self.parents[x] proc union*(self: var UnionFind, x, y: Natural) = var root_x = self.find(x) root_y = self.find(y) if root_x == root_y: return if self.parents[root_y] < self.parents[root_x]: (root_x, root_y) = (root_y, root_x) self.parents[root_x] += self.parents[root_y] self.parents[root_y] = root_x proc size*(self: var UnionFind, x: Natural): Positive = return -self.parents[self.find(x)] proc same*(self: var UnionFind, x, y: Natural): bool = return self.find(x) == self.find(y) proc members*(self: var UnionFind, x: Natural): seq[int] = let root = self.find(x) return toSeq(0..<int(self.n)).filterIt(self.find(it) == root) proc roots*(self: var UnionFind): seq[int] = return toSeq(0..<int(self.n)).filterIt(self.parents[it] < 0) proc groupCount*(self: var UnionFind): Positive = return self.roots.len when isMainModule: var L, R: int (L, R) = inputInts() if L == 1: echo 0 quit() var uf = initUnionFind(R - L + 1) cnt: int for i in L..(R + 1) div 2: for j in countup(i*2, R, i): if uf.same(i - L, j - L): continue uf.union(i - L, j - L) cnt.inc echo R - L + 1 - cnt - 1