### Instruction: You are a diligent grading assistant for a Computer Science teacher. Your task is to read and analyze the Python code between <code> and </code> tags. Evaluate the code according to the criteria provided between <criteria> and </criteria> tags. Before evaluating, carefully review the CodeDescription provided between <description> and </description> tags to understand the purpose and context of the project. For each criterion, always assess the logic of the code even if it does not run or contains errors, and provide a score. After addressing all criteria, conclude by listing all the individual scores in a summary. 

### CodeDescription: 
<description>
Implement an algorithm to solve mazes. You could use algorithms like depth-first search or breadth-first search and explore how maze complexity affects solving time. The output would be the solved maze, possibly visualized with the path highlighted.
</description>

### Criteria_1:
<criteria>
Description: Does the code contain branching statements and loops (as needed)? Branching using if-else and loops for repetitive execution of tasks are two of the most central elements of any Python code. So, all project code submissions must contain at least one if statement and one for / while statement.	
- 15 pts: Full points If the criteria is satisfied.
-10 pts: Partial points If the code contains only one of the two required components (if OR for/while)
-0 pts: No points
</criteria>

### Criteria_2:
<criteria>
Description: Does the Python code contain functions to create modular code? Functions are important to create modular tasks to reduce the redundancy in the code and for independent testing.	
- 10 pts: Full points If the code contains at least one function that is properly formatted and makes sense for the project.	
- 5 pts: Partial points If the code contains improper use of functions (or modular code is clear from files or other means).
- 0 pts: No points		
</criteria>

### Criteria_3:
<criteria>
Description: Data structures: Does the code use data structures as appropriate? Data structures discussed in the course are: strings, lists, and dictionaries. Grade whether the data structure that the code used is appropriate for that application. That is, if something has a key and a value, a dictionary is more appropriate than managing two lists. Similarly, if many variables are created instead of using a list, then it's improper code writing.
- 5 pts: Full points
- 0: pts No points
</criteria>

### Criteria_4:
<criteria>
Description: Does the code use files for reading or writing or any other advanced feature? If files are not applicable for the project, this criteria may be satisfied by graph generation, modules, python files, or other advanced features too.	
- 10 pts: Full points If file reading or other alternative advanced feature (like multiple modules, graphing, data analysis) is used appropriately in the code.
- 5 pts: Partial points Attempted to use files or other advanced feature but improper use/did not succeed fully.
- 0 pts: No points	
</criteria>

### Criteria_5:
<criteria>
Description: Is the code properly documented? Comments on key lines in the code and/or docstrings for functions.
- 5 pts: Full points if at least 5 commented lines or other text is present in the code
- 0 pts: No points If no comments or docstrings are provided.	
</criteria>

### Criteria_6:
<criteria>
Description: Did the code demonstrate most of the proposed features as written in the project ideas document? If most of the features are not demonstrated, check whether other equivalent (or new) features were implemented.	
- 25 pts: Full points If most of the features are successfully demonstrated (as seen from the code and its execution)
- 20 pts: Almost all features Almost all of the features for the project are demonstrated successfully.
- 15 pts: Half partial points Half of the proposed features are demonstrated successfully or some features are incorrectly implemented. The code implements a very basic set of features of the project.
- 10 pts: Partial points If only one feature is implemented and/or project is not significant work.
- 0 pts: No Marks
</criteria>

### Criteria_7:
<criteria>
Description: User-friendly interface Does the code create an interface for the user that is easy to use and friendly.	
- 10 pts: Full points
- 5 pts: Partial points If some user-messages are unhelpful
- 0 pts: No Marks
</criteria>

### MainPythonFileCode
<code>
print('Welcome user\nThe computer will automatically execute the code created to solve a maze.\n')
print('The code has to be overwritten prior to being run, meaning only the programmer  may choose the maze.\n')
print("This code was too complicated for me to write completely. I used external services to write this code. No inputs could be made into the maze to change the maze as the individual wants.\n")
import queue

# creating an empty string for lists and putting the maze strings in the list

def createMaze():
    maze = []
    maze.append(["#", "#", "#", "#", "#", "#", "O", "#", "#", "#"])
    maze.append(["#", " ", " ", "#", " ", "#", " ", "#", "#", "#"])
    maze.append(["#", " ", " ", " ", " ", "#", " ", "#", " ", "#"])
    maze.append(["#", " ", "#", "#", " ", " ", " ", " ", " ", "#"])
    maze.append(["#", "#", "#", "#", " ", "#", " ", " ", "#", "#"])
    maze.append(["#", " ", " ", " ", " ", " ", "#", " ", " ", "#"])
    maze.append(["#", "X", "#", "#", "#", "#", "#", "#", "#", "#"])

# returns the maze chosen in the programmer by the programmer

    return maze

def createMaze2():
    maze = []
    maze.append(["#", "#", "#", "#", "O", "#", "#", "#", "#", "#"])
    maze.append([" ", " ", " ", " ", " ", " ", " ", " ", " ", "#"])
    maze.append([" ", "#", " ", "#", " ", " ", "#", " ", "#", "#"])
    maze.append([" ", " ", "#", "#", "#", " ", "#", " ", "#", "#"])
    maze.append(["#", " ", " ", " ", " ", " ", "#", " ", " ", " "])
    maze.append(["#", " ", "#", "#", "#", " ", " ", "#", " ", "#"])
    maze.append(["#", " ", " ", " ", " ", "#", "#", "#", " ", "#"])
    maze.append(["#", "#", "#", "#", "X", "#", "#", "#", "#", "#"])

    return maze

def createMaze3():
    maze = []
    maze.append(["#", "O", "#", "#", "#", "#", "#", "#", "#", "#"])
    maze.append([" ", " ", " ", " ", " ", " ", " ", " ", " ", "#"])
    maze.append([" ", "#", " ", "#", " ", " ", "#", " ", "#", "#"])
    maze.append([" ", " ", "#", "#", "#", " ", "#", " ", "#", "#"])
    maze.append(["#", " ", " ", " ", " ", " ", "#", " ", " ", " "])
    maze.append(["#", " ", "#", "#", "#", " ", " ", "#", " ", "#"])
    maze.append(["#", " ", " ", " ", " ", "#", "#", " ", " ", "#"])
    maze.append(["#", "#", "#", "#", "#", "#", "#", "X", "#", "#"])

    return maze

# prints the maze and validates the maze's entrance, sides and exits

def printMaze(maze, path = " "):
    for x, pos in enumerate(maze[0]):
        if pos == "O":
            start = x

    i = start
    j = 0
    pos = set()
    for move in path:
        if move == "L":
            i -= 1

        elif move == "R":
            i += 1

        elif move == "U":
            j -= 1

        elif move == "D":
            j += 1
        pos.add((j, i))

    for j, row in enumerate(maze):
        for i, col in enumerate(row):
            if (j, i) in pos:
                print("+ ", end=" ")
            else:
                print(col + " ", end=" ")
        print()

# Gives the computer moves and tells the outline of the maze and having the computer tell whether that path is the shortest

def valid(maze, moves):
    for x, pos in enumerate(maze[0]):
        if pos == "O":
            start = x

    i = start
    j = 0
    for move in moves:
        if move == "L":
            i -= 1

        elif move == "R":
            i += 1

        elif move == "U":
            j -= 1

        elif move == "D":
            j += 1

        if not(0 <= i < len(maze[0]) and 0 <= j < len(maze)):
            return False
        elif (maze[j][i] == "#"):
            return False

    return True


# Allows the computer to use the moves to find the end of the maze with the fastest possible solution

def findEnd(maze, moves):
    for x, pos in enumerate(maze[0]):
        if pos == "O":
            start = x

    i = start
    j = 0
    for move in moves:
        if move == "L":
            i -= 1

        elif move == "R":
            i += 1

        elif move == "U":
            j -= 1

        elif move == "D":
            j += 1

    if maze[j][i] == "X":
        print("Found: " + moves)
        printMaze(maze, moves)
        return True
    
    return False

# Is the main structure of the program, creating the queue for the maze and letting LRUD to be introduced to the Queue till the moves do not equal to X

nums = queue.Queue()
nums.put("")
add = " "
maze = createMaze3()

while not findEnd(maze, add):
    add = nums.get()
    #print(add)
    for j in ["L", "R", "U", "D"]:
        put = add + j
        if valid(maze, put):
            nums.put(put)
</code>

### Response: