#[allow(unused_imports)]
use std::{
    convert::{Infallible, TryFrom, TryInto as _}, fmt::{self, Debug, Display, Formatter,},
    fs::File, hash::{Hash, Hasher, BuildHasherDefault}, iter::{Product, Sum}, marker::PhantomData,
    ops::{Add, AddAssign, Sub, SubAssign, Div, DivAssign, Mul, MulAssign, 
        Neg, RangeBounds, BitAnd, BitAndAssign, BitOr, BitXor, BitXorAssign, BitOrAssign, Index, IndexMut},
    str::FromStr, sync::{atomic::{self, AtomicU32, AtomicU64}, Once},
    collections::{*, btree_set::Range, btree_map::Range as BTreeRange}, mem::{take, swap},
    cmp::{self, Reverse, Ordering, Eq, PartialEq, PartialOrd},
    thread::LocalKey, f64::consts::PI, time::Instant, cell::RefCell,
    io::{self, stdin, Read, read_to_string, BufWriter, BufReader, stdout, Write},
    ptr::null_mut, println, print,debug_assert,debug_assert_eq,debug_assert_ne,
    matches
};
#[allow(unused_imports)]
use core::panic;
pub mod fxhash {
    use std::hash::BuildHasherDefault;
    const K: u64 = 0x517c_c1b7_2722_0a95;
    #[derive(Default)]
    pub struct FxHasher {
        pub hash: u64,
    }
    impl FxHasher {
        #[inline(always)]
        fn mix_u64(mut h: u64, x: u64) -> u64 {
            h = h.rotate_left(5) ^ x;
            h = h.wrapping_mul(K);
            let x2 = x ^ (x >> 33) ^ (x << 11);
            h = h.rotate_left(5) ^ x2;
            h = h.wrapping_mul(K);
            h
        }

        #[inline(always)]
        fn write_u64_impl(&mut self, x: u64) {
            self.hash = Self::mix_u64(self.hash, x);
        }
    }

    impl std::hash::Hasher for FxHasher {
        #[inline(always)]
        fn finish(&self) -> u64 {
            self.hash
        }

        #[inline(always)]
        fn write(&mut self, bytes: &[u8]) {
            let mut h = self.hash;
            for &b in bytes {
                h = h.rotate_left(5) ^ (b as u64);
                h = h.wrapping_mul(K);
            }
            self.hash = h;
        }

        #[inline(always)]
        fn write_u64(&mut self, i: u64) { self.write_u64_impl(i); }
        #[inline(always)]
        fn write_u32(&mut self, i: u32) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_u16(&mut self, i: u16) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_u8 (&mut self, i: u8 ) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_usize(&mut self, i: usize) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_i64(&mut self, i: i64) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_i32(&mut self, i: i32) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_i16(&mut self, i: i16) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_i8 (&mut self, i: i8 ) { self.write_u64_impl(i as u64); }
        #[inline(always)]
        fn write_isize(&mut self, i: isize) { self.write_u64_impl(i as u64); }
    }

    pub type FxBuildHasher = BuildHasherDefault<FxHasher>;
    pub type FxMap<K, V> = std::collections::HashMap<K, V, FxBuildHasher>;
    pub type FxSet<K> = std::collections::HashSet<K, FxBuildHasher>;
}

pub fn gcd(mut a: i64, mut b: i64)->i64{a=a.abs();b=b.abs();if a==0{return b;}else if b==0{return a;}let l1 = a.trailing_zeros();let l2 = b.trailing_zeros();
a >>= l1; b >>= l2;while a!=b{let x = (a^b).trailing_zeros();if a<b{swap(&mut a, &mut b)}a = (a-b)>>x;}a << l1.min(l2)}
pub fn gcd_i32(mut a: i32, mut b: i32)->i32{a=a.abs();b=b.abs();if a==0{return b;}else if b==0{return a;}let l1 = a.trailing_zeros();let l2 = b.trailing_zeros();
a >>= l1; b >>= l2;while a!=b{let x = (a^b).trailing_zeros();if a<b{swap(&mut a, &mut b)}a = (a-b)>>x;}a << l1.min(l2)}
pub fn factorial_i64(n: usize)->(Vec<i64>, Vec<i64>){ 
    let mut res = vec![1; n+1];let mut inv = vec![1; n+1];for i in 0..n{ res[i+1] = (res[i]*(i+1)as i64)%MOD; }
    inv[n] = mod_inverse(res[n], MOD);for i in (0..n).rev(){ inv[i] = inv[i+1]*(i+1) as i64%MOD; }(res, inv) }
pub fn floor(a:i64, b:i64)->i64{let res=(a%b+b)%b;(a-res)/b}
pub fn modulo(a: i64, b: i64)->i64{(a%b+b)%b}
pub fn extended_gcd(a:i64,b:i64)->(i64,i64,i64)
{if b==0{(a,1,0)}else{let(g,x,y)=extended_gcd(b,a%b);(g,y,x-floor(a,b)*y)}}
pub fn mod_inverse(a:i64,m:i64)->i64{let(_,x,_) =extended_gcd(a,m);(x%m+m)%m}
pub fn comb(a: i64, b: i64, f: &Vec<(i64, i64)>)->i64{
    if a<b{return 0;}else if b==0 || a==b{ return 1; }
    else{let x=f[a as usize].0;
        let y=f[(a-b) as usize].1;let z=f[b as usize].1;return((x*y)%MOD)*z%MOD;}}
pub fn factorial(x: i64)->Vec<(i64, i64)>{
    let mut f=vec![(1i64,1i64),(1, 1)];let mut z = 1i64;
    let mut inv = vec![0; x as usize+10];inv[1] = 1;
    for i in 2..x+1{z=(z*i)%MOD;
        let w=(MOD-inv[(MOD%i)as usize]*(MOD/i)%MOD)%MOD;
        inv[i as usize] = w;
        f.push((z, (f[i as usize-1].1*w)%MOD));}return f;}
pub fn fast_mod_pow(mut x: i64,p: usize, m: i64)->i64{
    x %= m;
    let mut res=1;let mut t=x;let mut z=p;while z > 0{
        if z%2==1{res = (res*t)%m;}t = (t*t)%m;z /= 2; }res}

pub trait SortD{ fn sort_d(&mut self); }
impl<T: Ord> SortD for Vec<T>{ fn sort_d(&mut self) {self.sort_by(|u, v| v.cmp(&u));} }
pub trait Mx{fn max(&self, rhs: Self)->Self;}
impl Mx for f64{ fn max(&self, rhs: Self)->Self{if *self < rhs{ rhs } else { *self } }}
pub trait Mi{ fn min(&self, rhs: Self)->Self; }
impl Mi for f64{ fn min(&self, rhs: Self)->Self{ if *self > rhs{ rhs } else { *self } } }
pub trait Chmax: PartialOrd + Copy {fn chmax(&mut self, rhs: Self) {if *self < rhs { *self = rhs; }}}
impl<T: PartialOrd + Copy> Chmax for T {}
pub trait Chmin: PartialOrd + Copy {fn chmin(&mut self, rhs: Self) {if *self > rhs { *self = rhs; }}}
impl<T: PartialOrd + Copy> Chmin for T {}
#[allow(unused)]
use proconio::{*, marker::*};
#[allow(unused)]
use fxhash::FxMap;
#[allow(unused)]
use ac_library::{*};

pub struct MintCombination{
    fact: Vec<MI>,
    inv_fact: Vec<MI>,
    inv: Vec<MI>,
}

impl MintCombination{
    pub fn new(n: usize)->Self {
        let mut fact = vec![MI::new(1); n+1];
        let mut inv_fact = vec![MI::new(0); n+1];
        let mut inv = vec![MI::new(1); n+1];
        for i in 0..n{
            fact[i+1] = fact[i]*(i+1);
        }
        inv_fact[n] = MI::new(1)/fact[n];
        for i in (0..n).rev(){
            inv_fact[i] = inv_fact[i+1]*(i+1);
            inv[i+1] = fact[i]*inv_fact[i+1];
        }
        MintCombination { fact, inv_fact, inv }
    }

    #[inline]
    pub fn inv(&self, x: usize)->MI{
        self.inv[x]
    }

    #[inline]
    pub fn f(&self, x: usize)->MI{
        self.fact[x]
    }

    #[inline]
    pub fn fi(&self, x: usize)->MI{
        self.inv_fact[x]
    }

    #[inline]
    pub fn p(&self, x: usize, y: usize)->MI{
        if x < y{MI::new(0)}
        else {self.fact[x]*self.inv_fact[x-y]}
    }

    #[inline]
    pub fn c(&self, x: usize, y: usize)->MI{
        if x < y{return MI::new(0);}
        self.fact[x]*self.inv_fact[y]*self.inv_fact[x-y]
    }
}

#[allow(dead_code)]
const INF: i64 = 1<<60;
#[allow(dead_code)]
const I: i32 = 1<<30;
#[allow(dead_code)]
const MOD: i64 = 998244353;
#[allow(dead_code)]
const D: [(usize, usize); 4] = [(1, 0), (0, 1), (!0, 0), (0, !0)];
#[allow(dead_code)]
pub fn c2d(c: u8)->(usize, usize){match c{b'U'=>(!0,0),b'D'=>(1,0),b'L'=>(0,!0),b'R'=>(0,1),_=>unreachable!()}}
#[allow(dead_code)]
pub fn c2d_i64(c: u8)->(i64, i64){match c{b'U'=>(-1,0),b'D'=>(1,0),b'L'=>(0,-1),b'R'=>(0,1),_=>unreachable!()}}
#[allow(dead_code)]
pub fn join2str<T: ToString>(v: &[T])->String{v.iter().map(|x| x.to_string()).collect::<Vec<_>>().join(" ")}
#[allow(dead_code)]
pub fn join2nospace<T: ToString>(v: &[T])->String{v.iter().map(|x| x.to_string()).collect::<Vec<_>>().join("")}
#[allow(dead_code)]
const D2: [(usize, usize); 8] = [(1, 0), (1, 1), (0, 1), (!0, 1), (!0, 0), (!0, !0), (0, !0), (1, !0)];

pub struct CSR{
    n: usize,
    ac: Vec<usize>,
    edge: Vec<usize>,
}

impl CSR{
    pub fn new(n: usize, es: &[(usize, usize)])->Self{
        let mut ac = vec![0; n+1];
        for &(u, _) in es{
            ac[u+1] += 1;
        }
        for i in 0..n{
            ac[i+1] += ac[i];
        }
        let mut cnt = ac.clone();
        let mut edge = vec![0; ac[n]];
        for &(u, v) in es{
            edge[cnt[u]] = v;
            cnt[u] += 1;
        }
        CSR { n, ac, edge }
    }

    pub fn undirected_new(n: usize, es: &[(usize, usize)])->Self{
        let mut e = Vec::with_capacity(es.len()<<1);
        for &(u, v) in es{
            e.push((u, v));
            e.push((v, u));
        }
        Self::new(n, &e)
    }

    pub fn len(&self)->usize{
        self.n
    }

    pub fn adj(&self, idx: usize)->&[usize]{
        &self.edge[self.ac[idx]..self.ac[idx+1]]
    }

    pub fn adj_mut(&mut self, idx: usize)->&mut [usize]{
        &mut self.edge[self.ac[idx]..self.ac[idx+1]]
    }
}

impl Index<usize> for CSR{
    type Output = [usize];

    fn index(&self, index: usize) -> &Self::Output {
        &self.edge[self.ac[index]..self.ac[index+1]]
    }
}

impl IndexMut<usize> for CSR{
    fn index_mut(&mut self, index: usize) -> &mut Self::Output {
        &mut self.edge[self.ac[index]..self.ac[index+1]]
    }
}

pub struct UnweightedGraph{
    n: usize,
    edge: CSR,
}

impl UnweightedGraph{
    pub fn new(n: usize, edge: &[(usize, usize)])->Self{
        UnweightedGraph{n, edge: CSR::undirected_new(n, &edge)}
    }

    pub fn bfs(&self, p: usize)->Vec<usize>{
        let mut dist = vec![!0; self.n];
        dist[p] = 0;
        let mut stack = VecDeque::new();
        stack.push_back(p);
        while let Some(p) = stack.pop_front(){
            for &nex in &self.edge[p]{
                if dist[nex]==!0{
                    dist[nex] = dist[p]+1;
                    stack.push_back(nex);
                }
            }
        }
        dist
    }

    pub fn farthest_point(&self, p: usize)->(usize, usize){
        let d = self.bfs(p);
        let (mut res, mut mx) = (p, 0);
        for i in 0..self.n{
            if d[i]!=!0 && d[i] > mx{
                mx = d[i];
                res = i;
            }
        }
        (mx, res)
    }

    pub fn n(&self)->usize{self.n}

    pub fn build_path(&self, u: usize, v: usize)->Option<Vec<usize>>{
        let dist = self.bfs(u);
        if dist[v]==!0{return None}
        let mut res = Vec::new();
        res.push(v);
        let mut p = v;
        while p != u{
            let mut nx = 0;
            for &nex in &self.edge[p]{
                if dist[nex]!=!0 && dist[nex]+1==dist[p]{
                    nx = nex;
                    break;
                }
            }
            p = nx;
            res.push(p);
        }
        res.reverse();
        Some(res)
    }

    pub fn path(&self, u: usize, v: usize)->Vec<usize>{
        let dist = self.bfs(u);
        let mut res = Vec::new();
        res.push(v);
        let mut p = v;
        while p != u{
            let mut nx = 0;
            for &nex in &self.edge[p]{
                if dist[nex]!=!0 && dist[nex]+1==dist[p]{
                    nx = nex;
                    break;
                }
            }
            p = nx;
            res.push(p);
        }
        res.reverse();
        res
    }
}

impl Index<usize> for UnweightedGraph{
    type Output = [usize];

    fn index(&self, index: usize) -> &Self::Output {
        &self.edge[index]
    }
}

pub struct HLDVertex {
    parent: Vec<u32>,
    head: Vec<u32>,
    depth: Vec<u32>,
    int: Vec<u32>,
    out: Vec<u32>,
    seq: Vec<u32>,
}

impl HLDVertex {
    pub fn new(n: usize, r: usize, e: &[(usize, usize)])->Self{
        let mut edge = UnweightedGraph::new(n, e);
        HLDVertex::size_dfs(r, !0, &mut edge);
        let mut int: Vec<u32> = vec![0; n];
        let mut seq: Vec<u32> = Vec::with_capacity(n);
        let mut out: Vec<u32> = vec![0; n];
        let mut parent: Vec<u32> = vec![!0; n];
        let mut head: Vec<u32> = vec![0; n];
        let mut depth: Vec<u32> = vec![0; n];
        HLDVertex::euler_tour(r, !0, r, &edge, &mut parent, &mut depth, &mut head, &mut int, &mut out, &mut seq);
        HLDVertex { parent, head, depth, int, out, seq,}
    }

    #[inline]
    fn size_dfs(p: usize, pre: usize, edge: &mut UnweightedGraph)->usize{
        let mut res = 1;
        let l = (&edge[p]).len();
        let mut mx = 0;
        let mut rv = 0;
        for i in 0..l{
            let nex = edge[p][i];
            if nex==pre{continue;}
            let nn = HLDVertex::size_dfs(nex, p, edge);
            if mx < nn {
                mx = nn;
                rv = i;
            }
            res += nn;
        }
        if rv!=0{edge.edge[p].swap(0, rv)};
        res
    }

    #[inline]
    fn euler_tour(p: usize, pre: usize, h: usize, edge: &UnweightedGraph, parent: &mut [u32], depth: &mut [u32], head: &mut [u32], int: &mut [u32], end: &mut [u32], seq: &mut Vec<u32>){
        int[p] = seq.len()as u32;
        seq.push(p as u32);
        head[p] = h as u32;
        if edge[p].is_empty() || edge[p][0]==pre{
            end[p] = seq.len()as u32;
            return;
        }
        let hc = edge[p][0];
        depth[hc] = depth[p]+1;
        parent[hc]=p as u32;
        HLDVertex::euler_tour(hc, p, h, edge, parent, depth, head, int, end, seq);
        for &nex in &edge[p][1..]{
            if nex==pre{continue;}
            depth[nex] = depth[p]+1;
            parent[nex]=p as u32;
            HLDVertex::euler_tour(nex, p, nex, edge, parent, depth, head, int, end, seq);
        }
        end[p] = seq.len() as u32;
    }

    #[inline]
    pub fn parent_up_k(&self, mut p: usize, mut k: usize)->usize{
        if (self.depth[p]as usize) < k {return !0;}
        while self.int[p]as usize-self.int[self.head[p]as usize]as usize+1 <= k{
            k -= self.int[p]as usize-self.int[self.head[p]as usize]as usize+1;
            p = self.parent[self.head[p]as usize]as usize;
        }
        self.seq[self.int[p]as usize-k]as usize
    }

    #[inline]
    pub fn parent_at_k(&self, p: usize, k: usize)->usize{
        if (self.depth[p]as usize) < k{return !0;}
        self.parent_up_k(p, self.depth[p]as usize-k)
    }

    #[inline]
    pub fn lca(&self, mut u: usize, mut v: usize)->usize{
        while self.head[u]!=self.head[v]{
            if self.int[self.head[u]as usize]>self.int[self.head[v]as usize]{
                swap(&mut u, &mut v);
            }
            v = self.parent[self.head[v]as usize]as usize;
        }
        if self.int[u]>self.int[v]{v} else {u}
    }

    #[inline]
    pub fn subtree(&self, p: usize)->(usize, usize){
        (self.int[p]as usize, self.out[p]as usize)
    }

    #[inline]
    pub fn distance(&self, u: usize, v: usize)->usize{
        let p = self.lca(u, v);
        (self.depth[u]+self.depth[v]-self.depth[p]*2)as usize
    }

    #[inline]
    pub fn jump_k(&self, u: usize, v: usize, k: usize)->usize{        
        let p = self.lca(u, v);
        let du = (self.depth[u]-self.depth[p])as usize;
        let dv = (self.depth[v]-self.depth[p])as usize;
        let d = du+dv;
        if d < k{return !0;}
        if k <= du {
            self.parent_up_k(u, k)
        } else {
            self.parent_up_k(v, d-k)
        }
    }

    pub fn all_path(&self, mut u: usize, mut v: usize)->Vec<usize>{
        let mut res = vec![u];
        let p = self.lca(u, v);
        while u!=p{
            u = self.parent[u]as usize;
            res.push(u);
        }
        let mut rev = Vec::new();
        while v!=p{
            rev.push(v);
            v = self.parent[v]as usize;
        }
        rev.reverse();
        res.extend(rev);
        res
    }

    // (left, right, rev: bool)
    #[inline]
    pub fn path(&self, mut u: usize, mut v: usize)->Vec<(usize, usize, bool)> {
        let mut res = Vec::new();
        let mut rev = Vec::new();
        while self.head[u]!=self.head[v]{
            let hu = self.head[u]as usize;
            let hv = self.head[v]as usize;
            if self.depth[hu] >= self.depth[hv] {
                res.push((self.int[hu]as usize, self.int[u]as usize+1, true));
                u=self.parent[hu]as usize;
            } else {
                rev.push((self.int[hv]as usize, self.int[v]as usize+1, false));
                v=self.parent[hv]as usize;
            }
        }
        if self.depth[u]<=self.depth[v]{
            rev.push((self.int[u]as usize, self.int[v]as usize+1, false));
        } else {
            res.push((self.int[v]as usize, self.int[u]as usize+1, true));
        }
        rev.reverse();
        res.extend(rev);
        res
    }

    #[inline]
    pub fn get_index(&self, p: usize)->usize{
        self.int[p]as usize
    }
}

#[derive(Clone, Debug, PartialEq, Eq)]
pub struct Matrix {
    n: usize,
    g: Vec<MI>,
}

impl Matrix {
    #[inline]
    pub fn new(n: usize, g: Vec<MI>) -> Self {
        assert_eq!(g.len(), n * n);
        Self { n, g }
    }

    #[inline]
    pub fn zeros(n: usize) -> Self {
        Self { n, g: vec![MI::new(0); n * n] }
    }

    #[inline]
    pub fn identity(n: usize) -> Self {
        let mut res = Self::zeros(n);
        for i in 0..n {
            res[(i, i)] = MI::new(1);
        }
        res
    }

    #[inline]
    pub fn mul(&self, rhs: &Self) -> Self {
        let n = self.n;
        let mut res = vec![MI::new(0); n * n];
        for i in 0..n {
            for k in 0..n {
                let a = self[(i, k)];
                for j in 0..n {
                    res[i * n + j] += a * rhs[(k, j)];
                }
            }
        }
        Self { n, g: res }
    }

    pub fn inv(&self) -> Self {
        let n = self.n;
        let mut a = self.clone();
        let mut b = Self::identity(n);

        for col in 0..n {
            let mut pivot = col;
            while pivot < n && a[(pivot, col)].val() == 0 {
                pivot += 1;
            }
            assert!(pivot < n, "matrix is not invertible");

            if pivot != col {
                for j in 0..n {
                    a.g.swap(col * n + j, pivot * n + j);
                    b.g.swap(col * n + j, pivot * n + j);
                }
            }

            let inv_pivot = a[(col, col)].inv();
            for j in 0..n {
                a[(col, j)] *= inv_pivot;
                b[(col, j)] *= inv_pivot;
            }

            for row in 0..n {
                if row == col { continue; }
                let factor = a[(row, col)];
                if factor.val() == 0 { continue; }
                for j in 0..n {
                    let x = a[(col, j)];
                    a[(row, j)] -= factor * x;
                    let x = b[(col, j)];
                    b[(row, j)] -= factor * x;
                }
            }
        }

        b
    }
}

impl std::ops::Index<(usize, usize)> for Matrix {
    type Output = MI;
    fn index(&self, (i, j): (usize, usize)) -> &Self::Output {
        &self.g[i * self.n + j]
    }
}

impl std::ops::IndexMut<(usize, usize)> for Matrix {
    fn index_mut(&mut self, (i, j): (usize, usize)) -> &mut Self::Output {
        &mut self.g[i * self.n + j]
    }
}

struct M;
impl Monoid for M{
    type S = (Matrix, Matrix);

    fn identity() -> Self::S {
        (Matrix::identity(2), Matrix::identity(2))
    }

    fn binary_operation(a: &Self::S, b: &Self::S) -> Self::S {
        (a.0.mul(&b.0), b.1.mul(&a.1))
    }
}

#[allow(unused)]
type MI = StaticModInt<Mod1000000007>;
const MULTI: bool = false;
#[fastout]
fn solve(){
    input!{
        n: usize,
        e: [(usize, usize); n-1],
        q: usize,
    }
    let hld = HLDVertex::new(n, 0, &e);
    let mut seg = Segtree::<M>::new(n);
    let mut idx = vec![0; n-1];
    for (i, &(u, v)) in e.iter().enumerate(){
        if hld.int[u]>hld.int[v]{
            idx[i] = u;
        } else {
            idx[i] = v;
        }
    }
    for _ in 0..q{
        input!{c:char}
        if c=='x' {
            input!{
                p: usize, c:[MI; 4],
            }
            let x = Matrix::new(2, c);
            seg.set(hld.get_index(idx[p]), (x.clone(), x.clone()));
        } else {
            input!{
                i: usize, j: usize,
            }
            let np = hld.jump_k(i, j, 1);
            let mut res = Matrix::identity(2);
            for (l, r, f) in hld.path(np, j) {
                let nm = seg.prod(l..r);
                if f{
                    res = res.mul(&nm.1);
                } else {
                    res = res.mul(&nm.0);
                }
            }
            println!("{}", res.g.iter().map(|x| x.val().to_string()).collect::<Vec<_>>().join(" "));
        }
    }
}

fn main() {
    if MULTI{
        input!{
            t: usize,
        }
        for _ in 0..t{
            solve();
        }
    } else {
        solve();
    }
}