#[macro_use]
mod io {
    use std::io::*;

    pub trait Scan<T> {
        fn scan<R: Read>(sc: &mut Scanner<R>) -> T;
    }

    macro_rules! scan_primitive {
        ($t: ty) => {
            impl Scan<$t> for $t {
                fn scan<R: Read>(sc: &mut Scanner<R>) -> $t {
                    sc.next_token().expect("EOF?").parse()
                        .unwrap_or_else(|e| panic!("Cannot parse {}", e))
                }
            }
        };
        ($t: ty, $($u: ty),+) => {
            scan_primitive!($t);
            scan_primitive!($($u),+);
        };
    }

    macro_rules! scan_tuple {
        ($($t: ident),*) => {
            impl< $($t: Scan<$t>),* > Scan< ( $($t),* ) > for ( $($t),* ) {
                fn scan<R: Read>(sc: &mut Scanner<R>) -> ( $($t),* ) {
                    ( $( $t::scan(sc)),* )
                }
            }
        };
    }

    scan_primitive!(u8, u16, u32, u64, i8, i16, i32, i64,
                    f32, f64, usize, isize, bool, String);
    scan_tuple!(T, U);
    scan_tuple!(T, U, V);
    scan_tuple!(T, U, V, W);

    #[allow(dead_code)]
    pub fn cin() -> Scanner<Stdin> {
        Scanner::new(stdin())
    }

    #[allow(dead_code)]
    pub struct Scanner<T> {
        buf: Vec<u8>,
        len: usize,
        idx: usize,
        reader: T,
    }

    #[allow(dead_code)]
    impl<Reader: Read> Scanner<Reader> {
        pub fn new(r: Reader) -> Scanner<Reader> {
            Scanner {
                buf: vec![0; 8192],
                len: 0,
                idx: 0,
                reader: r,
            }
        }

        pub fn next<T: Scan<T>>(&mut self) -> T {
            T::scan::<Reader>(self)
        }

        fn next_token(&mut self) -> Option<String> {
            let mut res = String::with_capacity(16);
            while let Some(c) = self.get_u8() {
                let d = c as char;
                if !d.is_whitespace() {
                    res.push(d);
                } else if res.len() != 0 {
                    self.unget_u8(c);
                    break;
                }
            }
            if res.len() == 0 { None } else { Some(res) }
        }

        pub fn next_line(&mut self) -> String {
            self.next_line_wrapped().unwrap()
        }

        pub fn next_line_wrapped(&mut self) -> Option<String> {
            let c = self.get_u8();
            if c.is_none() {
                return None;
            }
            let mut line = String::with_capacity(20);
            line.push(c.unwrap() as char);
            loop {
                let c = self.get_u8();
                if c.is_none() || c.unwrap() == b'\n' {
                    // コメントはC++等での仕様
                    // if c.is_some() {
                    //     self.unget_u8(b'\n');
                    // }
                    return Some(line);
                }
                line.push(c.unwrap() as char);
            }
        }

        pub fn has_next(&mut self) -> bool {
            loop {
                let c = self.get_u8();
                if c.is_none() {
                    return false;
                }
                let c = c.unwrap();
                if !(c as char).is_whitespace() {
                    self.unget_u8(c);
                    return true;
                }
            }
        }

        fn get_u8(&mut self) -> Option<u8> {
            if self.idx == self.len {
                match self.reader.read(&mut self.buf[..]) {
                    Ok(l) if l > 0 => {
                        self.idx = 0;
                        self.len = l;
                    }
                    _ => return None,
                }
            }
            self.idx += 1;
            Some(self.buf[self.idx - 1])
        }

        fn unget_u8(&mut self, c: u8) {
            self.idx = self.idx - 1;
            self.buf[self.idx] = c;
        }
    }

    // Output
    macro_rules! dump {
        ($($a: expr),+) => {{
            use std::io::*;
            write!(stderr(), "{}:{}\t", file!(), line!()).unwrap();
            dump!(A $($a),+);
            write!(stderr(), " = ").unwrap();
            dump!(B $($a),+);
            writeln!(stderr(), "").unwrap();
        }};
        (A $x: expr) => {
            write!(stderr(), "{}", stringify!($x)).unwrap();
        };
        (A $x: expr, $($y: expr),+) => {
            write!(stderr(), "{}, ", stringify!($x)).unwrap();
            dump!(A $($y),+);
        };
        (B $x: expr) => {
            write!(stderr(), "{:?}", $x).unwrap();
        };
        (B $x: expr, $($y: expr),+) => {
            write!(stderr(), "{:?}, ", $x).unwrap();
            dump!(B $($y),+);
        };
    }

    macro_rules! p {
        ($x:expr) => {
            println!("{:.10}", $x);
        };
        ($x:expr, $($y:expr),+) => {
            print!("{:.10} ", $x);
            p!($($y),+);
        };
    }
}
#[allow(unused_imports)]
use io::*;

#[allow(dead_code)]
mod avl_tree {
    use std;
    use std::cmp::Ordering::*;
    use std::fmt::*;

    type Link<T> = Option<Box<Node<T>>>;

    pub struct AVLTree<T> {
        pub root: Link<T>,
    }

    impl<T> AVLTree<T> {
        pub fn new() -> Self {
            AVLTree { root: None }
        }

        pub fn at(&self, k: usize) -> Option<&T> {
            if let Some(n) = at(&self.root, k) {
                Some(&n.val)
            } else {
                None
            }
        }

        pub fn remove_at(&mut self, k: usize) -> Option<T> {
            let (root, kth) = remove_at(self.root.take(), k);
            self.root = root;
            kth
        }

        pub fn merge(&mut self, right: &mut AVLTree<T>) {
            self.root = merge(self.root.take(), right.root.take());
        }

        pub fn split_at(&mut self, k: usize) -> (AVLTree<T>, AVLTree<T>) {
            let (left, right) = split_at(self.root.take(), k);
            (AVLTree { root: left }, AVLTree { root: right })
        }
    }

    impl<T: PartialOrd> AVLTree<T> {
        pub fn insert(&mut self, val: T) {
            self.root = insert(self.root.take(), val);
        }

        pub fn remove(&mut self, val: &T) -> bool {
            let (root, flg) = remove(self.root.take(), val);
            self.root = root;
            flg
        }

        pub fn find(&self, val: &T) -> Option<&T> {
            if let Some(n) = find(&self.root, &val) {
                Some(&n.val)
            } else {
                None
            }
        }

        pub fn split(&mut self, val: &T) -> (AVLTree<T>, AVLTree<T>) {
            let (left, right) = split(self.root.take(), val);
            (AVLTree { root: left }, AVLTree { root: right })
        }

        // get the number of elements which is less than val
        pub fn count_less(&mut self, val: &T) -> usize {
            count_less(&self.root, &val)
        }
    }

    impl<T: PartialOrd + Debug> AVLTree<T> {
        pub fn check(&self) {
            if let Some(ref root) = self.root {
                debug_assert!(balance_factor(&self.root).abs() < 2);
                root.verify();
            }
        }
    }

    #[derive(Debug)]
    pub struct Node<T> {
        left: Link<T>,
        val: T,
        right: Link<T>,
        size: usize,
        height: isize,
    }

    impl<T> Node<T> {
        fn new(val: T) -> Link<T> {
            Some(Box::new(Node {
                val: val,
                left: None,
                right: None,
                size: 1,
                height: 1,
            }))
        }

        #[inline(always)]
        fn update(&mut self) {
            self.size = size(&self.left) + size(&self.right) + 1;
            self.height = std::cmp::max(height(&self.left), height(&self.right)) + 1;
        }
    }

    impl<T: PartialOrd> Node<T> {
        fn verify(&self) {
            debug_assert_eq!(self.size, size(&self.left) + size(&self.right) + 1);
            debug_assert_eq!(self.height,
                             std::cmp::max(height(&self.left), height(&self.right)) + 1);
            debug_assert!(balance_factor(&self.left).abs() < 2);
            if let Some(ref l) = self.left {
                debug_assert!(l.val < self.val);
                l.verify();
            }
            debug_assert!(balance_factor(&self.right).abs() < 2);
            if let Some(ref r) = self.right {
                debug_assert!(self.val < r.val);
                r.verify();
            }
        }
    }

    // verified
    fn insert<T: PartialOrd>(n: Link<T>, val: T) -> Link<T> {
        match n {
            None => Node::new(val),
            Some(mut n) => {
                match val.partial_cmp(&n.val).unwrap() {
                    Less => n.left = insert(n.left.take(), val),
                    Equal => (), // TODO: optional
                    Greater => n.right = insert(n.right.take(), val),
                }
                n.update();
                balance(Some(n))
            }
        }
    }

    // verified
    fn remove<T: PartialOrd>(n: Link<T>, val: &T) -> (Link<T>, bool) {
        match n {
            None => (n, false),
            Some(mut n) => {
                match val.partial_cmp(&n.val).unwrap() {
                    Less => {
                        let (left, flg) = remove(n.left.take(), val);
                        n.left = left;
                        n.update();
                        (balance(Some(n)), flg)
                    }
                    Equal => {
                        let (q, r) = (n.left.take(), n.right.take());
                        match r {
                            None => (q, true),
                            Some(r) => {
                                let (r, mut min) = remove_leftmost(Some(r));
                                min.left = q;
                                min.right = r;
                                min.update();
                                (balance(Some(min)), true)
                            }
                        }
                    }
                    Greater => {
                        let (right, flg) = remove(n.right.take(), val);
                        n.right = right;
                        n.update();
                        (balance(Some(n)), flg)
                    }
                }
            }
        }
    }

    // verified
    // delete the leftmost (minimum) Node from n. returns (modified n, removed Node)
    fn remove_leftmost<T>(n: Link<T>) -> (Link<T>, Box<Node<T>>) {
        let mut n = n.unwrap();
        match n.left {
            None => {
                let right = n.right.take();
                n.update();
                (right, n)
            }
            _ => {
                let (left, min) = remove_leftmost(n.left.take());
                n.left = left;
                n.update();
                (balance(Some(n)), min)
            }
        }
    }

    // (new n, deleted max)
    // delete the rightmost (maximum) Node from n. returns (modified n, removed Node)
    fn remove_rightmost<T>(n: Link<T>) -> (Link<T>, Box<Node<T>>) {
        let mut n = n.unwrap();
        match n.right {
            None => {
                let left = n.left.take();
                n.update();
                (left, n)
            }
            _ => {
                let (right, max) = remove_rightmost(n.right.take());
                n.right = right;
                n.update();
                (balance(Some(n)), max)
            }
        }
    }

    fn merge<T>(left: Link<T>, right: Link<T>) -> Link<T> {
        match (left, right) {
            (None, right) => right,
            (left, None) => left,
            (mut left, mut right) => {
                if size(&left) > size(&right) {
                    let (right, x) = remove_leftmost(right.take());
                    merge_into_left(left, Some(x), right)
                } else {
                    let (left, x) = remove_rightmost(left.take());
                    merge_into_right(left, Some(x), right)
                }
            }
        }
    }

    // merge left, par, and right. size of par must be one.
    fn merge3<T>(left: Link<T>, par: Link<T>, right: Link<T>) -> Link<T> {
        debug_assert!(size(&par) == 1);
        if size(&left) > size(&right) {
            merge_into_left(left, par, right)
        } else {
            merge_into_right(left, par, right)
        }
    }

    fn merge_into_left<T>(left: Link<T>, par: Link<T>, right: Link<T>) -> Link<T> {
        debug_assert_eq!(size(&par), 1);
        debug_assert!(size(&left) >= size(&right));
        if height(&left) > height(&right) + 1 {
            let mut left = left.unwrap();
            left.right = merge_into_left(left.right.take(), par, right);
            left.update();
            balance(Some(left))
        } else {
            let mut par = par.unwrap();
            par.left = left;
            par.right = right;
            par.update();
            balance(Some(par))
        }
    }

    fn merge_into_right<T>(left: Link<T>, par: Link<T>, right: Link<T>) -> Link<T> {
        debug_assert_eq!(size(&par), 1);
        debug_assert!(size(&left) <= size(&right));
        if height(&left) + 1 < height(&right) {
            let mut right = right.unwrap();
            right.left = merge_into_right(left, par, right.left.take());
            right.update();
            balance(Some(right))
        } else {
            let mut par = par.unwrap();
            par.left = left;
            par.right = right;
            par.update();
            balance(Some(par))
        }
    }

    fn split<T: PartialOrd>(n: Link<T>, val: &T) -> (Link<T>, Link<T>) {
        match n {
            None => (None, None),
            Some(mut n) => {
                let (l, r) = (n.left.take(), n.right.take());
                n.update();
                match val.partial_cmp(&n.val).unwrap() {
                    Less => {
                        let (ll, lr) = split(l, val);
                        (ll, merge3(lr, Some(n), r))
                    }
                    Equal => (l, merge(Some(n), r)),
                    Greater => {
                        let (rl, rr) = split(r, val);
                        (merge3(l, Some(n), rl), rr)
                    }
                }
            }
        }
    }

    // verified
    fn split_at<T>(n: Link<T>, k: usize) -> (Link<T>, Link<T>) {
        debug_assert!(k <= size(&n));
        match n {
            None => (None, None),
            Some(mut n) => {
                let (l, r) = (n.left.take(), n.right.take());
                n.update();
                let sl = size(&l);
                match k.cmp(&sl) {
                    Less => {
                        let (ll, lr) = split_at(l, k);
                        (ll, merge3(lr, Some(n), r))
                    }
                    Equal => (l, merge(Some(n), r)),
                    Greater => {
                        let (rl, rr) = split_at(r, k - sl - 1);
                        (merge3(l, Some(n), rl), rr)
                    }
                }
            }
        }
    }

    fn find<'a, T: PartialOrd>(n: &'a Link<T>, val: &T) -> Option<&'a Node<T>> {
        match *n {
            None => None,
            Some(ref n) => {
                match val.partial_cmp(&n.val).unwrap() {
                    Less => find(&n.left, val),
                    Equal => Some(n),
                    Greater => find(&n.right, val),
                }
            }
        }
    }

    // verified
    fn at<T>(n: &Link<T>, k: usize) -> Option<&Node<T>> {
        match *n {
            None => None,
            Some(ref n) => {
                let ls = size(&n.left);
                match k.cmp(&ls) {
                    Less => at(&n.left, k),
                    Equal => Some(n),
                    Greater => at(&n.right, k - ls - 1),
                }
            }
        }
    }

    // verified
    fn remove_at<T>(n: Link<T>, k: usize) -> (Link<T>, Option<T>) {
        match n {
            None => (n, None),
            Some(mut n) => {
                match k.cmp(&size(&n.left)) {
                    Less => {
                        let (left, kth) = remove_at(n.left.take(), k);
                        n.left = left;
                        n.update();
                        (balance(Some(n)), kth)
                    }
                    Equal => {
                        let (q, r) = (n.left.take(), n.right.take());
                        match r {
                            None => (q, Some(n.val)),
                            Some(r) => {
                                let (r, mut min) = remove_leftmost(Some(r));
                                min.left = q;
                                min.right = r;
                                min.update();
                                (balance(Some(min)), Some(n.val))
                            }
                        }
                    }
                    Greater => {
                        let sl = size(&n.left);
                        let (right, kth) = remove_at(n.right.take(), k - sl - 1);
                        n.right = right;
                        n.update();
                        (balance(Some(n)), kth)
                    }
                }
            }
        }
    }

    fn count_less<T: PartialOrd>(n: &Link<T>, val: &T) -> usize {
        match *n {
            None => 0,
            Some(ref n) => {
                let sl = size(&n.left);
                match val.partial_cmp(&n.val).unwrap() {
                    Less => count_less(&n.left, val),
                    Equal => sl,
                    Greater => sl + 1 + count_less(&n.right, val),
                }
            }
        }
    }

    // verified
    fn balance<T>(n: Link<T>) -> Link<T> {
        match balance_factor(&n) {
            -1 | 0 | 1 => n,
            2 => {
                let mut n = n.unwrap();
                if balance_factor(&n.right) < 0 {
                    n.right = rotate_right(n.right.take());
                }
                rotate_left(Some(n))
            }
            -2 => {
                let mut n = n.unwrap();
                if balance_factor(&n.left) > 0 {
                    n.left = rotate_left(n.left.take());
                }
                rotate_right(Some(n))
            }
            _ => panic!(),
        }
    }

    // verified
    #[inline(always)]
    fn rotate_left<T>(q: Link<T>) -> Link<T> {
        let mut q = q.unwrap();
        let mut p = q.right.take().unwrap();
        q.right = p.left.take();
        q.update();
        p.left = Some(q);
        p.update();
        Some(p)
    }

    // verified
    #[inline(always)]
    fn rotate_right<T>(p: Link<T>) -> Link<T> {
        let mut p = p.unwrap();
        let mut q = p.left.take().unwrap();
        p.left = q.right.take();
        p.update();
        q.right = Some(p);
        q.update();
        Some(q)
    }

    // verified
    #[inline(always)]
    fn size<T>(n: &Link<T>) -> usize {
        match *n {
            None => 0,
            Some(ref n) => n.size,
        }
    }

    // verified
    #[inline(always)]
    fn height<T>(n: &Link<T>) -> isize {
        match *n {
            None => 0,
            Some(ref n) => n.height,
        }
    }

    // verified
    #[inline(always)]
    fn balance_factor<T>(n: &Link<T>) -> isize {
        match *n {
            None => panic!(),
            Some(ref n) => height(&n.right) - height(&n.left),
        }
    }

    // verified
    pub fn insert_ms<T: PartialOrd>(n: Link<T>, x: T) -> Link<T> {
        let (l, r) = split(n, &x);
        merge3(l, Node::new(x), r)
    }

    // verified
    pub fn remove_at_ms<T>(n: Link<T>, k: usize) -> (Link<T>, Option<T>) {
        if k < size(&n) {
            let (l, r) = split_at(n, k);
            let (right, kth) = remove_leftmost(r);
            (merge(l, right), Some(kth.val))
        } else {
            (n, None)
        }
    }

    // verified
    pub fn remove_ms<T: PartialOrd>(n: Link<T>, val: &T) -> (Link<T>, bool) {
        if find(&n, &val).is_some() {
            let (l, r) = split(n, val);
            let (right, _) = remove_leftmost(r);
            (merge(l, right), true)
        } else {
            (n, false)
        }
    }
}

fn main() {
    use avl_tree::*;
    let mut sc = cin();
    while sc.has_next() {
        let n = sc.next();
        let mut t = AVLTree::<(i32, usize)>::new();
        let mut x = 0;
        for i in 0..n {
            let a = -sc.next::<i32>();
            if x == 0 {
                x = a;
            }
            t.insert((a, i));
            p!(t.count_less(&(x, 0)) + 1);
        }
    }
}