Fancy Antiques
You are hosting a fancy party for fancy friends. And, like any fancy party, you need to buy some fancy antiques to put up around the venue (your house).
There is a set of $n$ fancy antiques that you need to buy. And there is a set of $m$ fancy antique shops in the city. Because these antiques are extremely rare, each fancy antique can only be found at a single fancy antique shop. However, the fancy antique shops can also sell “knockoff” (duplicate) versions of some of the antiques. And of course, for any fancy antique, there is only a single fancy antique shop in the city that holds a knockoff version of that antique (this is to maintain the rareness of the antiques). The shop that sells the original is not always the same shop that holds the knockoff.
It turns out that even though you can tell the difference, most people cannot tell the original version from the knockoff version of any given antique. And, because the shops can get away with it, sometimes the knockoff is more expensive than the original! Since the party is tomorrow, you only have time to visit $k$ shops. You would like to buy one version (either the original or the knockoff) of each of the $n$ antiques.
Suppose that there are three shops, and three antiques we would like to buy.

Antique $\# 1$ sells for $30$ at shop $\# 1$. Its knockoff sells for $50$ at shop $\# 2$.

Antique $\# 2$ sells for $70$ at shop $\# 2$. Its knockoff sells for $10$ at shop $\# 3$.

Antique $\# 3$ sells for $20$ at shop $\# 3$. Its knockoff sells for $80$ at shop $\# 1$.
Suppose you only have time to go to two shops. You can go to shops $1$ and $3$. You can buy the original of antique $1$ with cost $30$ at shop $1$, the original of antique $3$ with cost $20$ at shop $3$, and the knockoff of antique $2$ at shop $3$ with cost $10$. The total cost to buy these items is $60$, which is the minimum possible.
If you only have time to visit one shop, then it is impossible. You cannot buy a version of all three items by visiting a single shop.
Given the costs of the antiques/knockoffs at the shops, what is the minimum total cost to buy one version of each antique?
Input
Each input will consist of a single test case. Note that your program may be run multiple times on different inputs. The first line of input will consist of three spaceseparated integers: $n$, $m$, and $k$ ($1 \le n \le 100$, $1 \le k \le m \le 40$). The next $n$ lines will each have four space separated integers, $a$, $p$, $b$ and $q$, describing an antique, where:

$a$ is the index of the shop that sells the original version of the antique ($1 \le a \le m$)

$p$ is the price of the original version of the antique at shop $a$ ($1 \le p \le 10^7$)

$b$ is the index of the shop that sells the knockoff version of the antique ($1 \le b \le m$)

$q$ is the price of the knockoff version of the antique at shop $b$ ($1 \le q \le 10^7$)
Output
If it is possible to collect all of the antiques while visiting no more than $k$ stores, then output the minimum cost. If it is not possible, output $1$.
Sample Input 1  Sample Output 1 

3 3 2 1 30 2 50 2 70 3 10 3 20 1 80 
60 
Sample Input 2  Sample Output 2 

3 3 1 1 30 2 50 2 70 3 10 3 20 1 80 
1 