#pragma clang diagnostic push
#pragma ide diagnostic ignored "modernize-use-transparent-functors"

#include <iostream>
#include <list>
#include <queue>
#include <vector>
#include <stack>
#include <fstream>
#include <map>

const int nMax = 100005;

using namespace std;

class DisjointSet {
private:
    int m_parinte[nMax] = {}, m_dimensiune[nMax] = {};

public:
    explicit DisjointSet(int n) {
        for (int i = 1; i <= n; i++) {
            m_parinte[i] = i;
            m_dimensiune[i] = 1;
        }
    }

    int cauta(int x) {
        while (x != m_parinte[x]) {
            x = m_parinte[x];
        }
        return x;
    }

    void uneste(int x, int y) {
        int parinteX = cauta(x), parinteY = cauta(y);
        if (m_dimensiune[parinteX] >= m_dimensiune[parinteY]) {
            m_parinte[parinteY] = parinteX;
            m_dimensiune[parinteX] += m_dimensiune[parinteY];
        } else {
            m_parinte[parinteX] = parinteY;
            m_dimensiune[parinteY] += m_dimensiune[parinteX];
        }
    }
};

class Graf {
private:
    int m_n, m_m;
    vector<int> m_listAd[nMax];
    vector<vector<int>> m_listaMuchii;

    // DFS - https://www.infoarena.ro/problema/dfs
    bool m_dfsViz[nMax] = {};

    // BFS - https://www.infoarena.ro/problema/bfs
    int m_bfsDist[nMax] = {};
    queue<int> m_bfsQueue;

    // CTC - https://www.infoarena.ro/problema/ctc
    int m_ctcId[nMax] = {}, m_ctcLow[nMax] = {}, m_ctcUltId = 0;
    bool m_ctcPeStiva[nMax] = {};
    list<list<int>> m_ctc;
    stack<int> m_ctcStack;

    // Componente biconexe - https://www.infoarena.ro/problema/biconex
    list<list<int>> m_biconexComps;
    stack<int> m_biconexStack;
    int m_biconexLow[nMax] = {};

    // Muchii critice - https://leetcode.com/problems/critical-connections-in-a-network/
    map<pair<int, int>, bool> m_criticeToRemove;
    vector<vector<int>> m_critice;
    int m_criticeLow[nMax] = {}; // Id-ul nodului minim in care te poti intoarce din nodul i


    // ---------------- Functii private ----------------
    void orientatCtcDFS(int x) {
        m_ctcStack.push(x);
        m_ctcPeStiva[x] = true;
        m_ctcId[x] = m_ctcLow[x] = ++m_ctcUltId;

        for (auto y: m_listAd[x]) {
            // Nu am explorat nodul pana acum (neavand vreun id)
            if (m_ctcId[y] == 0) {
                orientatCtcDFS(y);
            }

            // Am intalnit un nod care inca nu a fost atribuit unei componente conexe.
            // Poate nodul curent face parte din viitoarea componenta conexa, a carei (posibila) sursa
            // a fost gasita de y.
            if (m_ctcPeStiva[y]) {
                m_ctcLow[x] = min(m_ctcLow[x], m_ctcLow[y]);
            }
        }

        // Am ajuns la nodul de start al ctc-ului explorat in prezent
        if (m_ctcId[x] == m_ctcLow[x]) {
            list<int> compCurr;
            while (true) {
                auto y = m_ctcStack.top();
                m_ctcStack.pop();

                m_ctcPeStiva[y] = false;
                compCurr.push_back(y);

                if (y == x) break;
            }
            m_ctc.push_back(compCurr);
        }
    }

    void neorientatBiconexAdd(int x, int y) {
        // Creeaza o noua componenta pentru afisare
        list<int> comp;

        // Adauga in componenta toate nodurile pana la y, inclusiv y
        while (m_biconexStack.top() != y) {
            comp.push_back(m_biconexStack.top());
            m_biconexStack.pop();
        }
        comp.push_back(y);
        m_biconexStack.pop();

        // Adauga in componenta si pe x, separat (in caz ca e un gap in stack intre y si x)
        // ^ gap-ul poate aparea daca intalnim mai multe componente biconexe ce se intorc in acelasi nod
        comp.push_back(x);

        m_biconexComps.push_back(comp);
    }

    void neorientatBiconexDfs(int x, int prev, int id) {
        // Initializam low-ul (nodul cel mai de sus din parcurgerea DFS in care putem ajunge)
        // si punem nodul curent pe stack
        m_biconexLow[x] = id;
        m_biconexStack.push(x);

        for (auto y: m_listAd[x]) {
            // Ignoram cazul in care ne intoarcem din nodul in care am plecat
            if (y == prev) continue;

            // Nodul y nu a fost vizitat => viziteaza-l
            if (!m_biconexLow[y]) {
                // Viziteaza-l si actualizeaza low
                neorientatBiconexDfs(y, x, id + 1);
                m_biconexLow[x] = min(m_biconexLow[x], m_biconexLow[y]);

                // Am ajuns la originea ciclului / am dat peste un nod de mai jos din parcurgerea
                // DFS la care nu mai putem ajunge altfel (=> componenta biconexa)
                if (m_biconexLow[y] >= id) {
                    neorientatBiconexAdd(x, y);
                }
            }
                // Nodul y a fost vizitat => doar actualizeaza min-ul in caz ca e nevoie,
                // fara sa risti sa afisezi o componenta biconexa de doua ori
            else {
                m_biconexLow[x] = min(m_biconexLow[x], m_biconexLow[y]);
            }
        }
    }

    void neorientatMuchiiCriticeDfs(int x, int prev, int id) {
        m_criticeLow[x] = id;

        for (auto y: m_listAd[x]) {
            // Nu te intoarce in nodul din care ai plecat
            if (y == prev) continue;

            // Ruleaza DFS in continuare, cu un id mai mare
            if (m_criticeLow[y] == 0) neorientatMuchiiCriticeDfs(y, x, id + 1);

            // Nodul vizitat din cel curent face parte dintr-un ciclu,
            // asa ca trebuie sa excludem muchia x-y
            if (m_criticeLow[y] < id + 1) {
                m_criticeToRemove[{x, y}] = m_criticeToRemove[{y, x}] = true;
            }

            // Actualizeaza low-ul nodului curent
            m_criticeLow[x] = min(m_criticeLow[x], m_criticeLow[y]);
        }
    }

public:
    // ---------------- Interfata publica ----------------
    explicit Graf(int n = 0, int m = 0) : m_n(n), m_m(m) {}


    /*************** Algoritmi generali ***************/
    void DFS(int k) {
        m_dfsViz[k] = true;

        for (auto x: m_listAd[k]) {
            if (!m_dfsViz[x]) {
                DFS(x);
            }
        }
    }

    const auto &BFS(int start) {
        m_bfsQueue.push(start);
        m_bfsDist[start] = 1;

        while (!m_bfsQueue.empty()) {
            int curr = m_bfsQueue.front();
            m_bfsQueue.pop();

            for (auto i: m_listAd[curr]) {
                if (m_bfsDist[i] == 0) {
                    m_bfsDist[i] = m_bfsDist[curr] + 1;
                    m_bfsQueue.push(i);
                }
            }
        }
        return m_bfsDist;
    }

    static bool potiConstruiGraf(vector<int> grade) {
        // Algoritmul Havel-Hakimi
        while (true) {
            sort(grade.begin(), grade.end(), greater<int>());

            if (grade[0] == 0) break;
            if (grade[0] > grade.size() - 1) return false;

            int maxVal = grade[0];
            for (int i = 1; i <= maxVal; i++) {
                grade[0]--;
                grade[i]--;
                if (grade[i] < 0) return false;
            }
        }

        return true;
    }


    /*************** Grafuri neorientate ***************/
    void neorientatCitesteListaMuchii(ifstream &in) {
        for (int i = 0; i < m_m; i++) {
            int x, y;
            in >> x >> y;
            m_listaMuchii.push_back({x, y});
        }
    }

    void neorientatListaMuchiiToListaAdiacenta() {
        for (auto &e: m_listaMuchii) {
            m_listAd[e[0]].push_back(e[1]);
            m_listAd[e[1]].push_back(e[0]);
        }
    }

    void neorientatCitesteListaAdiacenta(ifstream &in) {
        for (int i = 0; i < m_m; i++) {
            int x, y;
            in >> x >> y;
            m_listAd[x].push_back(y);
            m_listAd[y].push_back(x);
        }
    }

    int neorientatNrCompConexe() {
        int nrComp = 0;
        for (int i = 1; i <= m_n; i++) {
            if (!m_dfsViz[i]) {
                nrComp++;
                DFS(i);
            }
        }
        return nrComp;
    }

    const auto &neorientatBiconexe() {
        for (int i = 1; i <= m_n; i++) {
            if (!m_biconexLow[i]) {
                neorientatBiconexDfs(i, -1, 1);
            }
        }
        return m_biconexComps;
    }

    const auto &neorientatMuchiiCritice() {
        neorientatMuchiiCriticeDfs(0, -1, 1);

        // In rezultat, punem muchiile ce nu au fost marcate ca trebuind sa fie sterse
        for (auto &e: m_listaMuchii) {
            if (!m_criticeToRemove[{e[0], e[1]}]) {
                m_critice.push_back(e);
            }
        }

        return m_critice;
    }


    /*************** Grafuri orientate ***************/
    void orientatCitesteListaAdiacenta(ifstream &in) {
        for (int i = 0; i < m_m; i++) {
            int x, y;
            in >> x >> y;
            m_listAd[x].push_back(y);
        }
    }

    const auto &orientatCtc() {
        // Algoritmul lui Tarjan
        for (int i = 1; i <= m_n; i++) {
            // Nu am explorat nodul pana acum (neavand vreun id)
            if (m_ctcId[i] == 0) {
                orientatCtcDFS(i);
            }
        }
        return m_ctc;
    }
};

int main() {
    // Input rapid
    ios_base::sync_with_stdio(false);
    cin.tie(nullptr);

    // I/O
    ifstream in("disjoint.in");
    ofstream out("disjoint.out");

    int n, m;
    in >> n >> m;

    DisjointSet d(n);
    for (int i = 0; i < m; i++) {
        int cod, x, y;
        in >> cod >> x >> y;
        if (cod == 1) {
            d.uneste(x, y);
        } else if (cod == 2) {
            out << ((d.cauta(x) == d.cauta(y)) ? "DA" : "NU") << "\n";
        }
    }

    out.close();
    return 0;
}

#pragma clang diagnostic pop