#include <bits/stdc++.h>
#define MP make_pair
#define PB push_back
#define int long long
#define st first
#define nd second
#define rd third
#define FOR(i, a, b) for(int i =(a); i <=(b); ++i)
#define RE(i, n) FOR(i, 1, n)
#define FORD(i, a, b) for(int i = (a); i >= (b); --i)
#define REP(i, n) for(int i = 0;i <(n); ++i)
#define VAR(v, i) __typeof(i) v=(i)
#define FORE(i, c) for(VAR(i, (c).begin()); i != (c).end(); ++i)
#define ALL(x) (x).begin(), (x).end()
#define SZ(x) ((int)(x).size())
#define __builtin_ctz __builtin_ctzll
#define __builtin_clz __builtin_clzll
#define __builtin_popcount __builtin_popcountll
using namespace std;
#ifdef LOCAL
#define debug(...) _dbg(#__VA_ARGS__, __VA_ARGS__)
#define debugv(x) {{cerr <<#x <<" = "; FORE(itt, (x)) cerr <<*itt <<", "; cerr <<"\n"; }}
#else
#define debug(...) (__VA_ARGS__)
#define debugv(x)
#define cerr if(0)cout
#endif
#define next ____next
#define prev ____prev
#define left ____left
#define hash ____hash
typedef long long ll;
typedef long double LD;
typedef pair<int, int> PII;
typedef pair<ll, ll> PLL;
typedef vector<int> VI;
typedef vector<VI> VVI;
typedef vector<ll> VLL;
typedef vector<pair<int, int> > VPII;
typedef vector<pair<ll, ll> > VPLL;

template<class T> ostream& operator<<(ostream& out, vector<T> vec);
template<class T> ostream& operator<<(ostream& out, set<T> vec);
template<class L, class R> ostream& operator<<(ostream& out, map<L, R> vec);
template<class C> void mini(C&a4, C b4){a4=min(a4, b4); }
template<class C> void maxi(C&a4, C b4){a4=max(a4, b4); }
template<class T1, class T2>
ostream& operator<< (ostream &out, pair<T1, T2> pair) { return out << "(" << pair.first << ", " << pair.second << ")";}
template<class A, class B, class C> struct Triple { A first; B second; C third;
  bool operator<(const Triple& t) const { if (st != t.st) return st < t.st; if (nd != t.nd) return nd < t.nd; return rd < t.rd; } };
template<class T> void ResizeVec(T&, vector<int>) {}
template<class T> void ResizeVec(vector<T>& vec, vector<int> sz) {
  vec.resize(sz[0]); sz.erase(sz.begin()); if (sz.empty()) { return; }
  for (T& v : vec) { ResizeVec(v, sz); }
}
typedef Triple<int, int, int> TIII;
template<class A, class B, class C>
ostream& operator<< (ostream &out, Triple<A, B, C> t) { return out << "(" << t.st << ", " << t.nd << ", " << t.rd << ")"; }
template<class T> ostream& operator<<(ostream& out, vector<T> vec) { out<<"("; for (auto& v: vec) out<<v<<", "; return out<<")"; }
template<class T> ostream& operator<<(ostream& out, set<T> vec) { out<<"("; for (auto& v: vec) out<<v<<", "; return out<<")"; }
template<class L, class R> ostream& operator<<(ostream& out, map<L, R> vec) { out<<"("; for (auto& v: vec) out<<v<<", "; return out<<")"; }
ostream& operator<<(ostream& out, __int128_t x) {
  if (x < 0) { out<<"-"; x = -x; }
  if (x == 0) { return out<<"0"; }
  VI digs;
  while (x) {
    digs.PB(x % 10);
    x /= 10;
  }
  reverse(ALL(digs));
  for (auto d : digs) { out<<d; }
  return out;
}
template<typename TH> void _dbg(const char* sdbg, TH h) { cerr<<sdbg<<"="<<h<<"\n"; }
template<typename TH, typename... TA> void _dbg(const char* sdbg, TH h, TA... t) {
  while(*sdbg != ',') { cerr<<*sdbg++; } cerr<<"="<<h<<","; _dbg(sdbg+1, t...);
}

int n;
int orig_n;
// int Solve1(int a) {
//   return diam >= a;
// }
vector<VPII> slo;
bool MajorizedBySet(int a, int b, set<PII>& ps) {
  auto it = ps.lower_bound({a, 0});
  debug(ps);
  if (it == ps.end()) { return false; }
  return it->nd >= b;
}

// set<PII> all_ps; // TODO
// int Solve2(int a, int b) {
//   if (a > b) { swap(a, b); }
//   return MajorizedBySet(a, b, all_ps);
// }

// PII Delete(vector<PII>& v, int nei) {
//   REP (i, SZ(v)) {
//     if (v[i].st == nei) {
//       swap(v[i], v.back());
//       PII cp = v.back();
//       v.pop_back();
//       return cp;
//     }
//   }
//   return {-1, -1};
// }

int Locate(vector<PII>& v, int nei) {
  REP (i, SZ(v)) {
    if (v[i].st == nei) {
      return i;
    }
  }
  assert(0);
}

int DistToFurthestRec(int v, int par, int dis) {
  int res = dis;
  for (auto [nei, w] : slo[v]) {
    if (nei == par) { continue; }
    maxi(res, DistToFurthestRec(nei, v, dis + w));
  }
  return res;
}

int DistToFurthest(int v) { return DistToFurthestRec(v, -1, 0); }

struct DiamInfo {
  int v, len;
  friend ostream& operator<<(ostream& out, DiamInfo d) {
    return out<<"(v="<<d.v<<", len="<<d.len<<")";
  }
};

void PathToFurthestRec(int v, int par, int cur_dis, int need_dis, vector<DiamInfo>& res) {
  if (cur_dis == need_dis) {
    res.PB({v, need_dis});
    return;
  }
  for (auto [nei, w] : slo[v]) {
    if (nei == par) { continue; }
    PathToFurthestRec(nei, v, cur_dis + w, need_dis, res);
    if (!res.empty()) {
      res.PB({v, cur_dis});
      return;
    }
  }
}



vector<DiamInfo> PathToFurthest(int v) {
  int deepest = DistToFurthest(v);
  vector<DiamInfo> res;
  PathToFurthestRec(v, -1, 0, deepest, res);
  reverse(ALL(res));
  return res;
}

int Deattach(int rt, int nei) { // remove nei->rt, add nei<->fake_rt, return fake_rt
  //PII cp = Delete(slo[nei], rt);
  //assert(cp.st != -1);
  int ind = Locate(slo[nei], rt);
  n++;
  int fake_rt = n;
  slo[nei][ind].st = fake_rt;
  slo.resize(fake_rt + 2);
  //slo[nei].PB({fake_rt, cp.nd});
  slo[fake_rt].PB({nei, slo[nei][ind].nd});
  //cerr<<"deattach "<<nei<<" from "<<rt<<" to "<<fake_rt<<endl;
  return fake_rt;
}

void Reattach(int rt, int nei, int fake_rt) {
  //cerr<<"reattach "<<nei<<" from "<<fake_rt<<" back to "<<rt<<endl;
  //int c = slo[fake_rt][0].nd;
  //assert(slo[fake_rt].back().st == nei);
  //assert(slo[nei].back().st == fake_rt);
  int ind = Locate(slo[nei], fake_rt);
  // slo[fake_rt].pop_back();
  // slo[nei].pop_back();
  // slo[nei].PB({rt, c});
  slo[nei][ind].st = rt;
}

struct Handle {
  int real_rt_ord, son, fake_rt;
};

vector<Handle> GetHandles(vector<DiamInfo>& diam) {
  vector<Handle> handles;
  REP (ii, SZ(diam)) {
    int v = diam[ii].v;
    int left = -1, right = -1;
    if (ii) { left = diam[ii - 1].v; }
    if (ii + 1 < SZ(diam)) { right = diam[ii + 1].v; }
    for (auto [son, c] : slo[v]) {
      if (son == left || son == right) { continue; }
      int fake_rt = Deattach(v, son);
      handles.PB({ii, son, fake_rt});
      // 
      // UnrootedDS2 ur(fake_rt);
      // Reattach(v, son, fake_rt);
    }
  }
  return handles;
};

void ReattachHandles(vector<DiamInfo>& diam, vector<Handle>& handles) {
  for (auto handle : handles) {
    Reattach(diam[handle.real_rt_ord].v, handle.son, handle.fake_rt);
  }
}

struct PrefInfo {
  int len, id, son;
  friend ostream& operator<<(ostream& out, PrefInfo oth) {
    return out<<"(len="<<oth.len<<", id="<<oth.id<<", son="<<oth.son<<")";
  }
};

struct ProcessedDiam {
  vector<DiamInfo> main_diam;
  vector<int> max_descend_at;
  vector<int> max_pref_diam;
  vector<int> max_descend_pref, max_descend_suf;
  vector<PrefInfo> firsts, seconds;
  vector<PrefInfo> rev;
  ProcessedDiam() {}
  ProcessedDiam(vector<DiamInfo> diammmmm) {
    main_diam = diammmmm;
    int D = SZ(main_diam);
    int diam_len = main_diam.back().len;
    max_descend_at.resize(D);
    max_pref_diam.resize(D);
    max_descend_pref.resize(D);
    max_descend_suf.resize(D);
    
    vector<Handle> handles = GetHandles(main_diam);
    vector<vector<Handle>> by_id(SZ(main_diam));
    for (auto handle : handles) {
      by_id[handle.real_rt_ord].PB(handle);
    }
    
    function<void(PrefInfo)> Consider = [&](PrefInfo typek) {
      if (firsts.empty() || typek.len > firsts.back().len) {
        firsts.PB(typek);
      } else if (seconds.empty() || typek.len > seconds.back().len) {
        seconds.PB(typek);
      }
    };
    
    REP (ii, D) {
      PrefInfo plain{main_diam[ii].len, ii, 0};
      Consider(plain);
      if (ii) { max_pref_diam[ii] = max_pref_diam[ii - 1]; }
      for (auto handle : by_id[ii]) {
        int v = handle.fake_rt;
        vector<DiamInfo> inner_path = PathToFurthest(v);
        int deepest = inner_path.back().len;
        maxi(max_descend_at[ii], deepest);
        PrefInfo cand{main_diam[ii].len + deepest, ii, handle.son};
        Consider(cand);
        maxi(max_pref_diam[ii], PathToFurthest(inner_path.back().v).back().len);
      }
    }
    
    FORD (ii, D - 1, 0) {
      int to_end = diam_len - main_diam[ii].len;
      PrefInfo plain{to_end, ii, 0};
      if (rev.empty() || plain.len > rev.back().len) { rev.PB(plain); }
      PrefInfo cand{to_end + max_descend_at[ii], ii, 1};
      if (cand.len > rev.back().len) { rev.PB(cand); }
    }
    //debug(diammmmm);
    //debug(rev);
    
    RE (ii, D - 1) {
      max_descend_pref[ii] = max(max_descend_pref[ii - 1], max_descend_at[ii] + main_diam[ii].len);
    }
    FORD (ii, D - 2, 0) {
      max_descend_suf[ii] = max(max_descend_suf[ii + 1], max_descend_at[ii] + main_diam.back().len - main_diam[ii].len);
    }
    
    ReattachHandles(main_diam, handles);
  }
  PrefInfo GetFirstFromV(vector<PrefInfo>& v, int d) {
    if (v.empty() || v.back().len < d) { return {-1, -1, -1}; }
    int kl = 0, kp = SZ(v) - 1, faj = SZ(v) - 1;
    while (kl <= kp) {
      int aktc = (kl + kp) / 2;
      if (v[aktc].len >= d) {
        faj = aktc;
        kp = aktc - 1;
      } else {
        kl = aktc + 1;
      }
    }
    return v[faj];
  }
  PrefInfo GetFirstAtLeast(int d) {
    return GetFirstFromV(firsts, d);
  }
  PrefInfo GetSecondAtLeast(int d) {
    PrefInfo fir = GetFirstAtLeast(d);
    PrefInfo cand1 = GetFirstAtLeast(fir.len + 1);
    PrefInfo cand2 = GetFirstFromV(seconds, d);
    if (cand1.len == -1) { return cand2; }
    if (cand2.len == -1) { return cand1; }
    if (PII{cand1.id, cand1.son} < PII{cand2.id, cand2.son}) {
      return cand1;
    }
    return cand2;
  }
  PrefInfo GetFromBack(int d) {
    //debug(rev);
    return GetFirstFromV(rev, d);
  }
};

set<PII> FromGathered(VPII gather) {
  sort(ALL(gather));
  VPII filtered;
  for (auto p : gather) {
    while (!filtered.empty() && filtered.back().nd <= p.nd) {
      filtered.pop_back();
    }
    filtered.PB(p);
  }
  return set<PII>(ALL(filtered));
}

struct RootedDS2 {
  int biggest_diam_outside;
  int diam_len;
  RootedDS2() {}
  RootedDS2(int rt) {
    biggest_diam_outside = 0;
    vector<DiamInfo> diam = PathToFurthest(rt);
    diam_len = diam.back().len;
    VPII gather;
    ProcessedDiam processed_diam(diam);
    biggest_diam_outside = processed_diam.max_pref_diam.back();
    REP (ii, SZ(diam)) {
      gather.PB({diam[ii].len + processed_diam.max_descend_at[ii], diam_len - diam[ii].len});
      gather.PB({diam[ii].len, processed_diam.max_descend_at[ii] + diam_len - diam[ii].len});
      if (ii + 1 < SZ(diam)) {
        gather.PB({processed_diam.max_descend_pref[ii], processed_diam.max_descend_suf[ii + 1]});
      }
    }
    //debug(diam);
    gather.PB({diam.back().len, biggest_diam_outside});
    ps = FromGathered(gather);
    //debug("tutaj", ps);
  }
  set<PII> ps; // (x, y) - for a rooted path of length x, the second one can be y
  bool Solve(int a, int b) { // a has to start in the root
    return MajorizedBySet(a, b, ps);
  }
};

struct UnrootedDS2 {
  RootedDS2 inner;
  vector<DiamInfo> diam;
  int big1, big2;
  UnrootedDS2() {}
  UnrootedDS2(int v) {
    diam = PathToFurthest(v);
    v = diam.back().v;
    diam = PathToFurthest(v);
    inner = RootedDS2(v);
  }
  int Solve(int a, int b) {
    debug(a, b);
    return inner.Solve(a, b) || inner.Solve(b, a);
  }
};

struct CandDiam {
  int son, diam;
  bool operator<(const CandDiam& R) const {
    return diam > R.diam;
  }
};

struct Node {
  int backbone, diam, max_pref, max_suf;
  Node() {
    backbone = diam = max_pref = max_suf = 0;
  }
};

Node Join(Node A, Node B) {
  Node r;
  r.backbone = A.backbone + B.backbone;
  r.diam = max(A.diam, B.diam);
  r.max_pref = max(A.max_pref, A.backbone + B.max_pref);
  r.max_suf = max(B.max_suf, B.backbone + A.max_suf);
  maxi(r.diam, A.max_suf + B.max_pref);
  return r;
}

struct Drzewko {
  vector<Node> drz;
  int M;
  int Read(int a, int b) {
    if (a > b) { return 0; }
    a += M;
    b += M;
    Node L = drz[a];
    Node R = drz[b];
    if (a == b) { return L.diam; }
    while (a / 2 != b / 2) {
      if (a % 2 == 0) {
        L = Join(L, drz[a + 1]);
      }
      if (b % 2 == 1) {
        R = Join(drz[b - 1], R);
      }
      a /= 2;
      b /= 2;
    }
    L = Join(L, R);
    return L.diam;
  }
  Drzewko() {}
  Drzewko(vector<Node> base) {
    M = 1;
    while (M <= SZ(base)) {
      M *= 2;
    }
    drz.resize(2 * M + 5);
    REP (i, SZ(base)) {
      drz[i + M] = base[i];
    }
    FORD (i, M - 1, 1) {
      drz[i] = Join(drz[2 * i], drz[2 * i + 1]);
    }
  }
};

bool Clash(PrefInfo& lewo, PrefInfo& prawo) {
  if (lewo.id > prawo.id) { return true; }
  if (lewo.id == prawo.id && lewo.son && prawo.son) { return true; }
  return false;
};


struct OrientedDS3 {
  int diam_len;
  ProcessedDiam processed_diam;
  set<PII> ps;
  vector<RootedDS2*> rooted;
  vector<vector<CandDiam>> cand_diams;
  vector<Node> base;
  Drzewko drz;
  int big1, big2;
  vector<int> best_diam_at;
  OrientedDS3() {}
  // OrientedDS3(const OrientedDS3&) = delete;
  // OrientedDS3& operator=(const OrientedDS3&) = delete;
  OrientedDS3(OrientedDS3&&) = default;
  OrientedDS3& operator=(OrientedDS3&&) = default;
  vector<DiamInfo> main_diam;
  OrientedDS3(vector<DiamInfo> main_diamm) {
    main_diam = main_diamm;
    rooted.resize(orig_n + 2);
    cand_diams.resize(orig_n + 2);
    best_diam_at.resize(orig_n + 2);
    base.resize(2 * SZ(main_diamm));
    big1 = big2 = 0;
    REP (ii, SZ(main_diam) - 1) {
      base[2 * ii].backbone = main_diam[ii + 1].len - main_diam[ii].len;
      base[2 * ii].max_pref = base[2 * ii].backbone;
      base[2 * ii].max_suf = base[2 * ii].backbone;
      base[2 * ii].diam = base[2 * ii].backbone;
    }
    diam_len = main_diam.back().len;
    processed_diam = ProcessedDiam(main_diam);
    vector<Handle> handles = GetHandles(main_diam);
    VPII gather;
    for (auto handle : handles) {
      UnrootedDS2 ur2(handle.fake_rt);
      int deepest = DistToFurthest(handle.fake_rt);
      int inner_diam_len = ur2.diam.back().len;
      cand_diams[handle.real_rt_ord].PB({handle.son, inner_diam_len});
      int base_ind = 2 * handle.real_rt_ord - 1;
      if (inner_diam_len > big1) {
        big2 = big1;
        big1 = inner_diam_len;
      } else if (inner_diam_len > big2) {
        big2 = inner_diam_len;
      }
      //debug(handle.son, inner_diam_len);
      maxi(best_diam_at[handle.real_rt_ord], inner_diam_len);
      maxi(base[base_ind].diam, base[base_ind].max_pref + deepest);
      maxi(base[base_ind].diam, inner_diam_len);
      maxi(base[base_ind].max_pref, deepest);
      maxi(base[base_ind].max_suf, deepest);
      for (auto p : ur2.inner.ps) {
        gather.PB(p);
      }
      rooted[handle.son] = new RootedDS2(handle.fake_rt);
    }
    REP (i, orig_n) {
      sort(ALL(cand_diams[i]));
      if (SZ(cand_diams[i]) > 2) {
        cand_diams[i].resize(2);
      }
    }
    
    ReattachHandles(main_diam, handles);
    ps = FromGathered(gather);
    drz = Drzewko(base);
    REP (i, SZ(base)) {
      debug(base[i].backbone, base[i].max_pref, base[i].max_suf, base[i].diam);
    }
  }
  ~OrientedDS3() {
    REP (i, SZ(rooted)) {
      if (rooted[i]) {
        delete rooted[i];
        rooted[i] = nullptr;
      }
    }
  }
  

  
  bool Solve(int a, int b, int c) { // not necessarilly sorted, go from left to right
    //debug(a, b, c);
    if (c <= diam_len && a <= big1 && b <= big2) {
      //debug("big1 big2");
      return true;
    }
    if (MajorizedBySet(a, b, ps) || MajorizedBySet(b, a, ps)) {
      //debug("unr");
      return true;
    }
    
    PrefInfo lewo = processed_diam.GetFirstAtLeast(a);
    //debug(lewo);
    PrefInfo prawo = processed_diam.GetFromBack(c);
    assert(lewo.son != -1 && prawo.son != -1);
    // if (a.st == -1 || c.st == -1) { continue; }
    if (Clash(lewo, prawo)) { return false; }
    if (lewo.son) {
      if (rooted[lewo.son]->Solve(a - main_diam[lewo.id].len, b)) {
        //debug(a - lewo.len, b);
        //cerr<<"rooted w "<<lewo.son<<"\n";
        return true;
      }
      PrefInfo sec = processed_diam.GetSecondAtLeast(a);
      //debug(sec, prawo, Clash(sec, prawo), best_diam_at[lewo.id]);
      if (sec.len != -1 && !Clash(sec, prawo) && best_diam_at[lewo.id] >= b) {
        //cerr<<"w synie "<<lewo.son<<"\n";
        return true;
      }
    }
    int max_ask = -1;
    if (lewo.son == 0) {
      max_ask = prawo.id;
      if (prawo.son) { max_ask--; }
    } else {
      max_ask = lewo.id - 1;
    }
    if (max_ask >= 0 && processed_diam.max_pref_diam[max_ask] >= b) {
      cerr<<"dlugie diam gdzies\n";
      return true;  
    }
    
    if (lewo.son) {
      for (auto cand : cand_diams[lewo.id]) {
        if (cand.son != lewo.son && cand.diam >= b) {
          cerr<<"akurat pod tym samym "<<main_diam[lewo.id].v<<"\n";
          return true;
        }
      }
    }
    
    debug(a, c);
    debug(lewo.len, lewo.id, lewo.son);
    debug(prawo.len, prawo.id, prawo.son);
    int L = 2 * lewo.id;
    if (lewo.son == 0) { L--; }
    int R = 2 * prawo.id - 2;
    if (prawo.son == 0) { R++; }
    int rd = drz.Read(L, R);
    if (rd >= b) {
      cerr<<"z drzewka Read("<<L<<", "<<R<<")="<<rd<<"\n";
      return true;
    }
    return false;
  }
};

struct UnorientedDS3 {
  OrientedDS3 fir, sec;
  UnrootedDS2 ur2;
  vector<DiamInfo> diam;
  int diam_len;
  UnorientedDS3(int v) {
    diam = PathToFurthest(v);
    v = diam.back().v;
    diam = PathToFurthest(v);
    fir = OrientedDS3(diam);
    diam_len = diam.back().len;
    reverse(ALL(diam));
    for (auto& p : diam) {
      p.len = diam_len - p.len;
    }
    sec = OrientedDS3(diam);
    ur2 = UnrootedDS2(v);
  }
  bool Solve(int a, int b, int c) {
    debug(a, b, c);
    debug(diam_len);
    if (a + b + c <= diam_len) { return true; }
    if (max(a, max(b, c)) > diam_len) { return false; }
    if (ur2.Solve(a + b, c)) { return true; }
    if (ur2.Solve(b + c, a)) { return true; }
    if (ur2.Solve(c + a, b)) { return true; }
    debug("idzie do trojek");
    VI per{a, b, c};
    do {
      if (fir.Solve(per[0], per[1], per[2]) || sec.Solve(per[0], per[1], per[2])) { return true; }
    } while (next_permutation(ALL(per)));
    return false;
  }
};

// DS fir, sec;
// 
// set<PII> outside_diam_ps; // TODO
// int first_biggest_outside_diam; // TODO
// int second_biggest_outside_diam; // TODO
// int Solve3(int a, int b, int c) {
//   if (c > diam) { return false; }
//   if (b <= first_biggest_outside_diam && a <= second_biggest_outside_diam) { return true; }
//   if (MajorizedBySet(a, b, outside_diam_ps)) { return true; }
//   
//   return false;
// }


int32_t main() {

  ios_base::sync_with_stdio(0);
  cout << fixed << setprecision(10);
  cerr << fixed << setprecision(10);
  cin.tie(0);
  //double beg_clock = 1.0 * clock() / CLOCKS_PER_SEC;
  
  int q;
  cin>>n>>q;
  orig_n = n;
  slo.resize(n + 2);
  RE (i, n - 1) {
    int a, b, w;
    cin>>a>>b>>w;
    slo[a].PB({b, w});
    slo[b].PB({a, w});
  }
  UnorientedDS3 ds(1);
  RE (_, q) {
    int a, b, c;
    cin>>a>>b>>c;
    //if (Solve1(a + b + c) || Solve2(a + b, c) || Solve2(a + c, b) || Solve2(b + c, a) || Solve3(a, b, c)) {
    if (ds.Solve(a, b, c)) {
      cout<<"TAK\n";
    } else {
      cout<<"NIE\n";
    }
  }
  
  return 0;
}

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#include <bits/stdc++.h>
#define MP make_pair
#define PB push_back
#define int long long
#define st first
#define nd second
#define rd third
#define FOR(i, a, b) for(int i =(a); i <=(b); ++i)
#define RE(i, n) FOR(i, 1, n)
#define FORD(i, a, b) for(int i = (a); i >= (b); --i)
#define REP(i, n) for(int i = 0;i <(n); ++i)
#define VAR(v, i) __typeof(i) v=(i)
#define FORE(i, c) for(VAR(i, (c).begin()); i != (c).end(); ++i)
#define ALL(x) (x).begin(), (x).end()
#define SZ(x) ((int)(x).size())
#define __builtin_ctz __builtin_ctzll
#define __builtin_clz __builtin_clzll
#define __builtin_popcount __builtin_popcountll
using namespace std;
#ifdef LOCAL
#define debug(...) _dbg(#__VA_ARGS__, __VA_ARGS__)
#define debugv(x) {{cerr <<#x <<" = "; FORE(itt, (x)) cerr <<*itt <<", "; cerr <<"\n"; }}
#else
#define debug(...) (__VA_ARGS__)
#define debugv(x)
#define cerr if(0)cout
#endif
#define next ____next
#define prev ____prev
#define left ____left
#define hash ____hash
typedef long long ll;
typedef long double LD;
typedef pair<int, int> PII;
typedef pair<ll, ll> PLL;
typedef vector<int> VI;
typedef vector<VI> VVI;
typedef vector<ll> VLL;
typedef vector<pair<int, int> > VPII;
typedef vector<pair<ll, ll> > VPLL;

template<class T> ostream& operator<<(ostream& out, vector<T> vec);
template<class T> ostream& operator<<(ostream& out, set<T> vec);
template<class L, class R> ostream& operator<<(ostream& out, map<L, R> vec);
template<class C> void mini(C&a4, C b4){a4=min(a4, b4); }
template<class C> void maxi(C&a4, C b4){a4=max(a4, b4); }
template<class T1, class T2>
ostream& operator<< (ostream &out, pair<T1, T2> pair) { return out << "(" << pair.first << ", " << pair.second << ")";}
template<class A, class B, class C> struct Triple { A first; B second; C third;
  bool operator<(const Triple& t) const { if (st != t.st) return st < t.st; if (nd != t.nd) return nd < t.nd; return rd < t.rd; } };
template<class T> void ResizeVec(T&, vector<int>) {}
template<class T> void ResizeVec(vector<T>& vec, vector<int> sz) {
  vec.resize(sz[0]); sz.erase(sz.begin()); if (sz.empty()) { return; }
  for (T& v : vec) { ResizeVec(v, sz); }
}
typedef Triple<int, int, int> TIII;
template<class A, class B, class C>
ostream& operator<< (ostream &out, Triple<A, B, C> t) { return out << "(" << t.st << ", " << t.nd << ", " << t.rd << ")"; }
template<class T> ostream& operator<<(ostream& out, vector<T> vec) { out<<"("; for (auto& v: vec) out<<v<<", "; return out<<")"; }
template<class T> ostream& operator<<(ostream& out, set<T> vec) { out<<"("; for (auto& v: vec) out<<v<<", "; return out<<")"; }
template<class L, class R> ostream& operator<<(ostream& out, map<L, R> vec) { out<<"("; for (auto& v: vec) out<<v<<", "; return out<<")"; }
ostream& operator<<(ostream& out, __int128_t x) {
  if (x < 0) { out<<"-"; x = -x; }
  if (x == 0) { return out<<"0"; }
  VI digs;
  while (x) {
    digs.PB(x % 10);
    x /= 10;
  }
  reverse(ALL(digs));
  for (auto d : digs) { out<<d; }
  return out;
}
template<typename TH> void _dbg(const char* sdbg, TH h) { cerr<<sdbg<<"="<<h<<"\n"; }
template<typename TH, typename... TA> void _dbg(const char* sdbg, TH h, TA... t) {
  while(*sdbg != ',') { cerr<<*sdbg++; } cerr<<"="<<h<<","; _dbg(sdbg+1, t...);
}

int n;
int orig_n;
// int Solve1(int a) {
//   return diam >= a;
// }
vector<VPII> slo;
bool MajorizedBySet(int a, int b, set<PII>& ps) {
  auto it = ps.lower_bound({a, 0});
  debug(ps);
  if (it == ps.end()) { return false; }
  return it->nd >= b;
}

// set<PII> all_ps; // TODO
// int Solve2(int a, int b) {
//   if (a > b) { swap(a, b); }
//   return MajorizedBySet(a, b, all_ps);
// }

// PII Delete(vector<PII>& v, int nei) {
//   REP (i, SZ(v)) {
//     if (v[i].st == nei) {
//       swap(v[i], v.back());
//       PII cp = v.back();
//       v.pop_back();
//       return cp;
//     }
//   }
//   return {-1, -1};
// }

int Locate(vector<PII>& v, int nei) {
  REP (i, SZ(v)) {
    if (v[i].st == nei) {
      return i;
    }
  }
  assert(0);
}

int DistToFurthestRec(int v, int par, int dis) {
  int res = dis;
  for (auto [nei, w] : slo[v]) {
    if (nei == par) { continue; }
    maxi(res, DistToFurthestRec(nei, v, dis + w));
  }
  return res;
}

int DistToFurthest(int v) { return DistToFurthestRec(v, -1, 0); }

struct DiamInfo {
  int v, len;
  friend ostream& operator<<(ostream& out, DiamInfo d) {
    return out<<"(v="<<d.v<<", len="<<d.len<<")";
  }
};

void PathToFurthestRec(int v, int par, int cur_dis, int need_dis, vector<DiamInfo>& res) {
  if (cur_dis == need_dis) {
    res.PB({v, need_dis});
    return;
  }
  for (auto [nei, w] : slo[v]) {
    if (nei == par) { continue; }
    PathToFurthestRec(nei, v, cur_dis + w, need_dis, res);
    if (!res.empty()) {
      res.PB({v, cur_dis});
      return;
    }
  }
}



vector<DiamInfo> PathToFurthest(int v) {
  int deepest = DistToFurthest(v);
  vector<DiamInfo> res;
  PathToFurthestRec(v, -1, 0, deepest, res);
  reverse(ALL(res));
  return res;
}

int Deattach(int rt, int nei) { // remove nei->rt, add nei<->fake_rt, return fake_rt
  //PII cp = Delete(slo[nei], rt);
  //assert(cp.st != -1);
  int ind = Locate(slo[nei], rt);
  n++;
  int fake_rt = n;
  slo[nei][ind].st = fake_rt;
  slo.resize(fake_rt + 2);
  //slo[nei].PB({fake_rt, cp.nd});
  slo[fake_rt].PB({nei, slo[nei][ind].nd});
  //cerr<<"deattach "<<nei<<" from "<<rt<<" to "<<fake_rt<<endl;
  return fake_rt;
}

void Reattach(int rt, int nei, int fake_rt) {
  //cerr<<"reattach "<<nei<<" from "<<fake_rt<<" back to "<<rt<<endl;
  //int c = slo[fake_rt][0].nd;
  //assert(slo[fake_rt].back().st == nei);
  //assert(slo[nei].back().st == fake_rt);
  int ind = Locate(slo[nei], fake_rt);
  // slo[fake_rt].pop_back();
  // slo[nei].pop_back();
  // slo[nei].PB({rt, c});
  slo[nei][ind].st = rt;
}

struct Handle {
  int real_rt_ord, son, fake_rt;
};

vector<Handle> GetHandles(vector<DiamInfo>& diam) {
  vector<Handle> handles;
  REP (ii, SZ(diam)) {
    int v = diam[ii].v;
    int left = -1, right = -1;
    if (ii) { left = diam[ii - 1].v; }
    if (ii + 1 < SZ(diam)) { right = diam[ii + 1].v; }
    for (auto [son, c] : slo[v]) {
      if (son == left || son == right) { continue; }
      int fake_rt = Deattach(v, son);
      handles.PB({ii, son, fake_rt});
      // 
      // UnrootedDS2 ur(fake_rt);
      // Reattach(v, son, fake_rt);
    }
  }
  return handles;
};

void ReattachHandles(vector<DiamInfo>& diam, vector<Handle>& handles) {
  for (auto handle : handles) {
    Reattach(diam[handle.real_rt_ord].v, handle.son, handle.fake_rt);
  }
}

struct PrefInfo {
  int len, id, son;
  friend ostream& operator<<(ostream& out, PrefInfo oth) {
    return out<<"(len="<<oth.len<<", id="<<oth.id<<", son="<<oth.son<<")";
  }
};

struct ProcessedDiam {
  vector<DiamInfo> main_diam;
  vector<int> max_descend_at;
  vector<int> max_pref_diam;
  vector<int> max_descend_pref, max_descend_suf;
  vector<PrefInfo> firsts, seconds;
  vector<PrefInfo> rev;
  ProcessedDiam() {}
  ProcessedDiam(vector<DiamInfo> diammmmm) {
    main_diam = diammmmm;
    int D = SZ(main_diam);
    int diam_len = main_diam.back().len;
    max_descend_at.resize(D);
    max_pref_diam.resize(D);
    max_descend_pref.resize(D);
    max_descend_suf.resize(D);
    
    vector<Handle> handles = GetHandles(main_diam);
    vector<vector<Handle>> by_id(SZ(main_diam));
    for (auto handle : handles) {
      by_id[handle.real_rt_ord].PB(handle);
    }
    
    function<void(PrefInfo)> Consider = [&](PrefInfo typek) {
      if (firsts.empty() || typek.len > firsts.back().len) {
        firsts.PB(typek);
      } else if (seconds.empty() || typek.len > seconds.back().len) {
        seconds.PB(typek);
      }
    };
    
    REP (ii, D) {
      PrefInfo plain{main_diam[ii].len, ii, 0};
      Consider(plain);
      if (ii) { max_pref_diam[ii] = max_pref_diam[ii - 1]; }
      for (auto handle : by_id[ii]) {
        int v = handle.fake_rt;
        vector<DiamInfo> inner_path = PathToFurthest(v);
        int deepest = inner_path.back().len;
        maxi(max_descend_at[ii], deepest);
        PrefInfo cand{main_diam[ii].len + deepest, ii, handle.son};
        Consider(cand);
        maxi(max_pref_diam[ii], PathToFurthest(inner_path.back().v).back().len);
      }
    }
    
    FORD (ii, D - 1, 0) {
      int to_end = diam_len - main_diam[ii].len;
      PrefInfo plain{to_end, ii, 0};
      if (rev.empty() || plain.len > rev.back().len) { rev.PB(plain); }
      PrefInfo cand{to_end + max_descend_at[ii], ii, 1};
      if (cand.len > rev.back().len) { rev.PB(cand); }
    }
    //debug(diammmmm);
    //debug(rev);
    
    RE (ii, D - 1) {
      max_descend_pref[ii] = max(max_descend_pref[ii - 1], max_descend_at[ii] + main_diam[ii].len);
    }
    FORD (ii, D - 2, 0) {
      max_descend_suf[ii] = max(max_descend_suf[ii + 1], max_descend_at[ii] + main_diam.back().len - main_diam[ii].len);
    }
    
    ReattachHandles(main_diam, handles);
  }
  PrefInfo GetFirstFromV(vector<PrefInfo>& v, int d) {
    if (v.empty() || v.back().len < d) { return {-1, -1, -1}; }
    int kl = 0, kp = SZ(v) - 1, faj = SZ(v) - 1;
    while (kl <= kp) {
      int aktc = (kl + kp) / 2;
      if (v[aktc].len >= d) {
        faj = aktc;
        kp = aktc - 1;
      } else {
        kl = aktc + 1;
      }
    }
    return v[faj];
  }
  PrefInfo GetFirstAtLeast(int d) {
    return GetFirstFromV(firsts, d);
  }
  PrefInfo GetSecondAtLeast(int d) {
    PrefInfo fir = GetFirstAtLeast(d);
    PrefInfo cand1 = GetFirstAtLeast(fir.len + 1);
    PrefInfo cand2 = GetFirstFromV(seconds, d);
    if (cand1.len == -1) { return cand2; }
    if (cand2.len == -1) { return cand1; }
    if (PII{cand1.id, cand1.son} < PII{cand2.id, cand2.son}) {
      return cand1;
    }
    return cand2;
  }
  PrefInfo GetFromBack(int d) {
    //debug(rev);
    return GetFirstFromV(rev, d);
  }
};

set<PII> FromGathered(VPII gather) {
  sort(ALL(gather));
  VPII filtered;
  for (auto p : gather) {
    while (!filtered.empty() && filtered.back().nd <= p.nd) {
      filtered.pop_back();
    }
    filtered.PB(p);
  }
  return set<PII>(ALL(filtered));
}

struct RootedDS2 {
  int biggest_diam_outside;
  int diam_len;
  RootedDS2() {}
  RootedDS2(int rt) {
    biggest_diam_outside = 0;
    vector<DiamInfo> diam = PathToFurthest(rt);
    diam_len = diam.back().len;
    VPII gather;
    ProcessedDiam processed_diam(diam);
    biggest_diam_outside = processed_diam.max_pref_diam.back();
    REP (ii, SZ(diam)) {
      gather.PB({diam[ii].len + processed_diam.max_descend_at[ii], diam_len - diam[ii].len});
      gather.PB({diam[ii].len, processed_diam.max_descend_at[ii] + diam_len - diam[ii].len});
      if (ii + 1 < SZ(diam)) {
        gather.PB({processed_diam.max_descend_pref[ii], processed_diam.max_descend_suf[ii + 1]});
      }
    }
    //debug(diam);
    gather.PB({diam.back().len, biggest_diam_outside});
    ps = FromGathered(gather);
    //debug("tutaj", ps);
  }
  set<PII> ps; // (x, y) - for a rooted path of length x, the second one can be y
  bool Solve(int a, int b) { // a has to start in the root
    return MajorizedBySet(a, b, ps);
  }
};

struct UnrootedDS2 {
  RootedDS2 inner;
  vector<DiamInfo> diam;
  int big1, big2;
  UnrootedDS2() {}
  UnrootedDS2(int v) {
    diam = PathToFurthest(v);
    v = diam.back().v;
    diam = PathToFurthest(v);
    inner = RootedDS2(v);
  }
  int Solve(int a, int b) {
    debug(a, b);
    return inner.Solve(a, b) || inner.Solve(b, a);
  }
};

struct CandDiam {
  int son, diam;
  bool operator<(const CandDiam& R) const {
    return diam > R.diam;
  }
};

struct Node {
  int backbone, diam, max_pref, max_suf;
  Node() {
    backbone = diam = max_pref = max_suf = 0;
  }
};

Node Join(Node A, Node B) {
  Node r;
  r.backbone = A.backbone + B.backbone;
  r.diam = max(A.diam, B.diam);
  r.max_pref = max(A.max_pref, A.backbone + B.max_pref);
  r.max_suf = max(B.max_suf, B.backbone + A.max_suf);
  maxi(r.diam, A.max_suf + B.max_pref);
  return r;
}

struct Drzewko {
  vector<Node> drz;
  int M;
  int Read(int a, int b) {
    if (a > b) { return 0; }
    a += M;
    b += M;
    Node L = drz[a];
    Node R = drz[b];
    if (a == b) { return L.diam; }
    while (a / 2 != b / 2) {
      if (a % 2 == 0) {
        L = Join(L, drz[a + 1]);
      }
      if (b % 2 == 1) {
        R = Join(drz[b - 1], R);
      }
      a /= 2;
      b /= 2;
    }
    L = Join(L, R);
    return L.diam;
  }
  Drzewko() {}
  Drzewko(vector<Node> base) {
    M = 1;
    while (M <= SZ(base)) {
      M *= 2;
    }
    drz.resize(2 * M + 5);
    REP (i, SZ(base)) {
      drz[i + M] = base[i];
    }
    FORD (i, M - 1, 1) {
      drz[i] = Join(drz[2 * i], drz[2 * i + 1]);
    }
  }
};

bool Clash(PrefInfo& lewo, PrefInfo& prawo) {
  if (lewo.id > prawo.id) { return true; }
  if (lewo.id == prawo.id && lewo.son && prawo.son) { return true; }
  return false;
};


struct OrientedDS3 {
  int diam_len;
  ProcessedDiam processed_diam;
  set<PII> ps;
  vector<RootedDS2*> rooted;
  vector<vector<CandDiam>> cand_diams;
  vector<Node> base;
  Drzewko drz;
  int big1, big2;
  vector<int> best_diam_at;
  OrientedDS3() {}
  // OrientedDS3(const OrientedDS3&) = delete;
  // OrientedDS3& operator=(const OrientedDS3&) = delete;
  OrientedDS3(OrientedDS3&&) = default;
  OrientedDS3& operator=(OrientedDS3&&) = default;
  vector<DiamInfo> main_diam;
  OrientedDS3(vector<DiamInfo> main_diamm) {
    main_diam = main_diamm;
    rooted.resize(orig_n + 2);
    cand_diams.resize(orig_n + 2);
    best_diam_at.resize(orig_n + 2);
    base.resize(2 * SZ(main_diamm));
    big1 = big2 = 0;
    REP (ii, SZ(main_diam) - 1) {
      base[2 * ii].backbone = main_diam[ii + 1].len - main_diam[ii].len;
      base[2 * ii].max_pref = base[2 * ii].backbone;
      base[2 * ii].max_suf = base[2 * ii].backbone;
      base[2 * ii].diam = base[2 * ii].backbone;
    }
    diam_len = main_diam.back().len;
    processed_diam = ProcessedDiam(main_diam);
    vector<Handle> handles = GetHandles(main_diam);
    VPII gather;
    for (auto handle : handles) {
      UnrootedDS2 ur2(handle.fake_rt);
      int deepest = DistToFurthest(handle.fake_rt);
      int inner_diam_len = ur2.diam.back().len;
      cand_diams[handle.real_rt_ord].PB({handle.son, inner_diam_len});
      int base_ind = 2 * handle.real_rt_ord - 1;
      if (inner_diam_len > big1) {
        big2 = big1;
        big1 = inner_diam_len;
      } else if (inner_diam_len > big2) {
        big2 = inner_diam_len;
      }
      //debug(handle.son, inner_diam_len);
      maxi(best_diam_at[handle.real_rt_ord], inner_diam_len);
      maxi(base[base_ind].diam, base[base_ind].max_pref + deepest);
      maxi(base[base_ind].diam, inner_diam_len);
      maxi(base[base_ind].max_pref, deepest);
      maxi(base[base_ind].max_suf, deepest);
      for (auto p : ur2.inner.ps) {
        gather.PB(p);
      }
      rooted[handle.son] = new RootedDS2(handle.fake_rt);
    }
    REP (i, orig_n) {
      sort(ALL(cand_diams[i]));
      if (SZ(cand_diams[i]) > 2) {
        cand_diams[i].resize(2);
      }
    }
    
    ReattachHandles(main_diam, handles);
    ps = FromGathered(gather);
    drz = Drzewko(base);
    REP (i, SZ(base)) {
      debug(base[i].backbone, base[i].max_pref, base[i].max_suf, base[i].diam);
    }
  }
  ~OrientedDS3() {
    REP (i, SZ(rooted)) {
      if (rooted[i]) {
        delete rooted[i];
        rooted[i] = nullptr;
      }
    }
  }
  

  
  bool Solve(int a, int b, int c) { // not necessarilly sorted, go from left to right
    //debug(a, b, c);
    if (c <= diam_len && a <= big1 && b <= big2) {
      //debug("big1 big2");
      return true;
    }
    if (MajorizedBySet(a, b, ps) || MajorizedBySet(b, a, ps)) {
      //debug("unr");
      return true;
    }
    
    PrefInfo lewo = processed_diam.GetFirstAtLeast(a);
    //debug(lewo);
    PrefInfo prawo = processed_diam.GetFromBack(c);
    assert(lewo.son != -1 && prawo.son != -1);
    // if (a.st == -1 || c.st == -1) { continue; }
    if (Clash(lewo, prawo)) { return false; }
    if (lewo.son) {
      if (rooted[lewo.son]->Solve(a - main_diam[lewo.id].len, b)) {
        //debug(a - lewo.len, b);
        //cerr<<"rooted w "<<lewo.son<<"\n";
        return true;
      }
      PrefInfo sec = processed_diam.GetSecondAtLeast(a);
      //debug(sec, prawo, Clash(sec, prawo), best_diam_at[lewo.id]);
      if (sec.len != -1 && !Clash(sec, prawo) && best_diam_at[lewo.id] >= b) {
        //cerr<<"w synie "<<lewo.son<<"\n";
        return true;
      }
    }
    int max_ask = -1;
    if (lewo.son == 0) {
      max_ask = prawo.id;
      if (prawo.son) { max_ask--; }
    } else {
      max_ask = lewo.id - 1;
    }
    if (max_ask >= 0 && processed_diam.max_pref_diam[max_ask] >= b) {
      cerr<<"dlugie diam gdzies\n";
      return true;  
    }
    
    if (lewo.son) {
      for (auto cand : cand_diams[lewo.id]) {
        if (cand.son != lewo.son && cand.diam >= b) {
          cerr<<"akurat pod tym samym "<<main_diam[lewo.id].v<<"\n";
          return true;
        }
      }
    }
    
    debug(a, c);
    debug(lewo.len, lewo.id, lewo.son);
    debug(prawo.len, prawo.id, prawo.son);
    int L = 2 * lewo.id;
    if (lewo.son == 0) { L--; }
    int R = 2 * prawo.id - 2;
    if (prawo.son == 0) { R++; }
    int rd = drz.Read(L, R);
    if (rd >= b) {
      cerr<<"z drzewka Read("<<L<<", "<<R<<")="<<rd<<"\n";
      return true;
    }
    return false;
  }
};

struct UnorientedDS3 {
  OrientedDS3 fir, sec;
  UnrootedDS2 ur2;
  vector<DiamInfo> diam;
  int diam_len;
  UnorientedDS3(int v) {
    diam = PathToFurthest(v);
    v = diam.back().v;
    diam = PathToFurthest(v);
    fir = OrientedDS3(diam);
    diam_len = diam.back().len;
    reverse(ALL(diam));
    for (auto& p : diam) {
      p.len = diam_len - p.len;
    }
    sec = OrientedDS3(diam);
    ur2 = UnrootedDS2(v);
  }
  bool Solve(int a, int b, int c) {
    debug(a, b, c);
    debug(diam_len);
    if (a + b + c <= diam_len) { return true; }
    if (max(a, max(b, c)) > diam_len) { return false; }
    if (ur2.Solve(a + b, c)) { return true; }
    if (ur2.Solve(b + c, a)) { return true; }
    if (ur2.Solve(c + a, b)) { return true; }
    debug("idzie do trojek");
    VI per{a, b, c};
    do {
      if (fir.Solve(per[0], per[1], per[2]) || sec.Solve(per[0], per[1], per[2])) { return true; }
    } while (next_permutation(ALL(per)));
    return false;
  }
};

// DS fir, sec;
// 
// set<PII> outside_diam_ps; // TODO
// int first_biggest_outside_diam; // TODO
// int second_biggest_outside_diam; // TODO
// int Solve3(int a, int b, int c) {
//   if (c > diam) { return false; }
//   if (b <= first_biggest_outside_diam && a <= second_biggest_outside_diam) { return true; }
//   if (MajorizedBySet(a, b, outside_diam_ps)) { return true; }
//   
//   return false;
// }


int32_t main() {

  ios_base::sync_with_stdio(0);
  cout << fixed << setprecision(10);
  cerr << fixed << setprecision(10);
  cin.tie(0);
  //double beg_clock = 1.0 * clock() / CLOCKS_PER_SEC;
  
  int q;
  cin>>n>>q;
  orig_n = n;
  slo.resize(n + 2);
  RE (i, n - 1) {
    int a, b, w;
    cin>>a>>b>>w;
    slo[a].PB({b, w});
    slo[b].PB({a, w});
  }
  UnorientedDS3 ds(1);
  RE (_, q) {
    int a, b, c;
    cin>>a>>b>>c;
    //if (Solve1(a + b + c) || Solve2(a + b, c) || Solve2(a + c, b) || Solve2(b + c, a) || Solve3(a, b, c)) {
    if (ds.Solve(a, b, c)) {
      cout<<"TAK\n";
    } else {
      cout<<"NIE\n";
    }
  }
  
  return 0;
}