|
- Above All -
- Lenny LeBlanc & Paul Baloche - |
|
Above all powers
Above all things
Above all nature and all created things
Above all wisdom and all the ways of man
You were here before the world began
Above all kingdoms
Above all thrones
Above all wonders the world has ever known
Above all wealth and treasures of the earth
There's no way to measure what You're worth |
Crucified
Laid behind the stone
You lived to die
Rejected and alone
Like a rose trampled on the ground
You took the fall
And thought of me
Above all |
Last updated on:
07 August 2008 12:04:09 PM
Comment on this volume:
N/A.
|
No |
Problem Name |
* |
Algorithm |
|
10800-10808 |
|
10800 |
Not That
Kind of Graph |
4.0 |
String Processing |
|
10801 |
Lift
Hopping |
* |
TLE - Graph (Shortest Path) |
|
10802 |
Lex
Smallest Drive |
* |
Haven't try yet |
|
10803 |
Thunder Mountain |
4.0 |
Graph (Shortest Path) |
|
10804 |
Gopher
Strategy |
* |
Haven't try yet |
|
10805 |
Cockroach Escape Networks |
* |
Haven't try yet |
|
10806 |
Dijkstra,
Dijkstra. |
* |
Haven't try yet |
|
10807 |
Prim,
Prim. |
* |
Haven't try yet |
|
10808 |
Rational
Resistors |
* |
Haven't try yet |
|
10809-10813 |
|
10809 |
Great
Circle |
* |
Haven't try yet |
|
10810 |
Ultra-QuickSort |
4.5 |
Sorting |
|
10811 |
Up the
Ante |
* |
Haven't try yet |
|
10812 |
Beat the Spread! |
2.5 |
Math |
|
10813 |
Traditional BINGO |
3.0 |
Ad Hoc |
|
10814-10819 |
|
10814 |
Simplifying Fractions |
* |
Haven't try yet |
|
10815 |
Andy's First
Dictionary |
4.5 |
String |
|
10816 |
Travel
in Desert |
* |
Haven't try yet |
|
10817 |
Headmaster's Headache |
* |
Haven't try yet |
|
10818 |
Dora
Trip |
* |
Haven't try yet |
|
10819 |
Trouble
of 13-Dots |
* |
Haven't try yet, look at Eduard's notes |
|
10820-10829 |
|
10820 |
Send a
Table |
* |
Haven't try yet -
Pre-calculate the answer? |
|
10821 |
Constructing BST |
* |
Haven't try yet |
|
10822 |
Planet
of the Rock, Paper and Scissors |
* |
Haven't try yet |
|
10823 |
Of
Circles and Squares |
* |
Haven't try yet |
|
10824 |
Regular
Polygon |
* |
Haven't try yet |
|
10825 |
Anagram
and Multiplication |
* |
Haven't try yet |
|
10826 |
Hot or
Cold? |
* |
Haven't try yet |
|
10827 |
Maximum
sum on a torus |
* |
Haven't try yet |
|
10828 |
Back to
Kernighan-Ritchie |
* |
Haven't try yet |
|
10829 |
L-Gap
Substrings |
* |
Haven't try yet |
|
10830-10839 |
|
10830 |
A New
Function |
* |
Haven't try yet |
|
10831 |
Gerg's
Cake |
* |
Haven't try yet |
|
10832 |
Yoyodyne |
* |
Haven't try yet |
|
10833 |
Lunar
Forest |
* |
Haven't try yet |
|
10834 |
The
Story of Two Coins |
* |
Haven't try yet |
|
10835 |
Playing
with Coins |
* |
Haven't try yet |
|
10836 |
The
Maximum Term |
* |
Haven't try yet |
|
10837 |
A
Research Problem |
* |
Haven't try yet |
|
10838 |
The Pawn
Chess |
* |
Haven't try yet |
|
10839 |
The
Curse of Barbosa |
* |
Haven't try yet |
|
10840-10899 |
|
10843 |
Anne's Game |
- |
Haven't try yet |
|
10849 |
Move the
Bishop |
- |
Haven't try yet |
|
10852 |
Less Prime |
- |
Haven't try yet |
|
10865 |
Brownie Points I |
- |
Haven't try yet |
|
10878 |
Decode the tape |
- |
Haven't try yet |
|
10879 |
Code Refactoring |
- |
Haven't try yet |
Total submit-able problems in this volume: 100
Solved problems: 10
Problems in Wrong Answer list from this volume: 1
Unattempted problems: 91
Total hints in this volume: 14
This is a string processing
problem, just follow the problem description. To help you determine whether
you already get a correct implementation or not, let me give you several
examples (see the highlighted text to view the whitespaces):
Input:
4
RCRFCRFFCCRRC
FFFCCC
RFCRFC
CCCRRF
Output:
Case #1:
| _
| _/\_/\ /
| / \__/
+---------------
Case #2:
| \
| \
| \___
+--------
Case #3:
| /\_/\_
+--------
Case #4:
| /\
| ___/
+--------
10801 -
Lift Hopping
This problem, although is a
bit weird for real-life situation, can be transformed into graph problem.
Give edges between floors that can be served within one lift, the weight of
this edges is the gap between floors * time required by this lift to move
one floor. Also, add another edges that connects two lifts if they stop at
the same floor, give weight 60. The solution is the shortest path from floor
0 to floor k by traversing this graph. Please use Dijkstra algorithm.
10803 -
Thunder Mountain
A simple all-pairs shortest
path problem. Firstly, build a distance matrix (use floating point). Set the
distance to a very big number (say, 1 million) if it is bigger than 10 km.
Then, perform floyd warshall algorithm to obtain the shortest path from any
pair of towns. Then, pick the longest path among these shortest path
distances, this will be your answer... if the answer is greater than 1
million, then output "Send Kurdy" since there exist a pair of town that are
unreachable.
This problem is actually a
problem of counting "inversion index" using merge sort. Since merge sort
runs in O(n lg n), 500.000 lg2 500.000 ~~ 10.000.000 operations... doable...
To compute inversion index, merge sort can be
slightly modified. When the right partition goes in first in merge step,
that means all the remaining items in left partition < first element in
right partition (i.e. you have to swap with all of them).
Note: since the number of such op swaps
can be very large, you must use unsigned long long to store op.
From the problem
description, we know that:
score1 + score2 = s, and
score1 - score2 = d (assuming score1 >= score2).
Therefore:
score1 = (s+d)/2
score2 = s-score1
This formula will only
valid if (s+d)%2 == 0 and score1 >= 0 and score2 >= 0.
This problem is quite
straightforward. Just follow the description given in the problem
description. For the 'free space' in the center, mark it from the beginning,
that's all...
Simple string processing
problem. Tokenize each word (word is defined as sequences of a-z/A-Z
only!), lowercase them, and then hash them to a good hashtable (in C++,
I use STL map). Finally, output the strings in sorted order.
This is what I can derive
so far:
TotalPrecalculated[1] = 1; // base case
TotalPrecalculated[i] = TotalPrecalculated[i-1] + 2*(number of occurrences
of j, j<=i, and gcd(j,i) == 1)
I think I will going to
pre-calculate this values up to 50000, store it in a table, and then send
this table to the judge?...
This problem looks very tough but only to them who
dont know Cayleys formula. It gives the number of distinct spanning trees in a
complete graph on n vertices.
Basic formula : n^(n-2).
But for higher value of n, like n = 100, you can
easily understand the situation. It will cause overflow. So, to avoid this
problem, we can take the help of Number Theory. From Chinese Remainder rule we
know, In case of consecutive multiplying if we MOD a number at each step of
multiply by a particular number then the result will be same as the result of
doing MOD at the end of the multiplications that particular number.
Example
22 * 1 = 44
44 * 2 = 88
88 * 3 = 264
264 % 10 = 4
But,
22 * 1 = 44 % 10 = 4
4 * 2 = 8 % 10 = 8
8 * 3 = 24 % 10 = 4
So, we can see the result is same in both the
cases. In this problem we just need to write a function that will find the power
of any number and at each intermediate step it will MOD the result by
2000000011. Then there will be no chance of having Over Flow.
For this problem we can say that a bishop needs to
move at best twice to go from any square to another one. WHY? Very simple! Look
at the chess board. You can understand it.

So, the possible results will be:
0 if the source and destination is same.
1 if the source and destination situated on the same line. (In the picture for
black we have shown the lines by red and green colors.)
2 if the source and destination situated on the same color but different
line.
no move if source and destination situated on different color.
We will be given N (matrix size) and x1,y1
(source), x2,y2 (destination)
Use if else just following this order!
Case # 1 : Out of the board
If any one of x1,y1,x2,y2 is greater than N then
no move
Explanation: As the board size is N, no value can not be greater than it.
Case # 2 : Source and Destination is same
If x1=x2 and y1=y2, then 0
Explanation: As source and destination are same.
Case # 3 : On the same line (Red lines in the
picture)
if abs(x1-x2) = abs(y1-y2), then 1.
Explanation: Look at the picture along red lines. 1,3 2,4 3,5 4,6 etc.
At each square index is increasing by 1 in both x and y axis. So, if the
difference of x and y of source and destination is same then they will be on
the same line.
Case # 4 : On the Same line (Green Lines in the
picture)
if x1+y1 = x2+y2 , then 1.
Explanation: Look at the picture along green line. 1,7 2,6 3,5 4,4 etc.
At each square index is decreasing by 1 in y axis and increasing by 1 in x axis.
As a result, sum is always same. So, if the sum of [x,y](source) and sum of [x,y](destination)
is same then they will be on the same line.
Case # 5 : On the same color (For white)
if x is odd and y is even or if x is even or y is
odd then this square is white.
Now, if source and destination is white and case 1 to 4 fails, then answer is
2
Explanation: This is just my observation. Look at the picture. You can also
understand it.
Case # 6 : On the same color (For Black)
if x and y both are even or if x and y both are
odd then this square is Black.
Now, if source and destination is Black and case 1 to 4 fails, then answer is
2
Explanation: This is just my observation. Look at the picture. You can also
understand it.
Case # 7 : Un reachable
If case 1 to 6 fails then unreachable. So, the
answer is no move.
This is actually an easy prime problem.
Problem wants, Let n be an integer, 100 ≤ n ≤
10000, find the prime number x, x ≤ n, so that n-p*x is maximum, where p is an
integer such that p*x ≤ n < (p+1)*x. If we simplifies this statement then we
can locate the position of the desired prime number !
If n is the input then our desired prime number
will be just the prime number after/from this number k = n/2 + 1. Now,
generate the prime numbers and check according to this statement and you will
easily get it accepted.
Example
n = 101
k = n/2 + 1 = 50 + 1 = 51.
So the next prime number from this number is 53.
This is actually a checking problem. At first we
need to find the dividing line region. Then will start to check for each point
based on some criteria for Stan and Olie. Here goes the algorithm.
k=N/2+1; // mid point that is actually the
dividing line region.
x=a[k]; // a[] holds the X co-ordinate value and x is the X of the mid point.
y=b[k]; // b[] holds the Y co-ordinate value and y is the Y of the mid point.
stan=0; // Initially both of them have 0 score.
olie=0;
for (i=1; i<=N; i++) {
if ((a[i]>x && b[i]>y)||(a[i]<x && b[i]<y)) // Criteria for Stan
stan++;
if ((a[i]>x && b[i]<y)||(a[i]<x && b[i]>y)) // Criteria for Olie
olie++;
}
Just print the value of stan and olie.
Very easy problem. To solve this problem at first
you need to decode what the problem actually wants. In the problem description
you can not find any type of hint of actually what you need to do ! The only
clue is the sample input and which is really sufficient.
Look at the sample input. You will get something
like this one,
___________
| o . o|
| o . |
| ooo . o|
| ooo .o o|
___________
Just ignore the first and the last line. Consider
from second to second last line and also ignore there the first (from left), 7th
and 11th character. From rest of the character consider space as ZERO and o
as ONE. Now convert this binary number to decimal and output the corresponding
character.
Example
| o . o|
x01000x001 => 01000001(b) => 65(d) => A.
Trust me! Just find arbitrarily any two numbers
that forms the given number. Here you need to find two such pair. Its a special
judge problem and there is nothing called special or critical test case.
My Process:
1. Start from 2 to find two divisor of the given number.
2. Now, divide the given number with these two numbers and get another two!
3. Just print them according to the given format and get it accepted.
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