Problem 1. For the following MIPS assembly instructions above, what is a corresponding C statement?

add f, g, h
add f, i, f

Problem 2. For the following C statement, what is the corresponding MIPS assembly code? Assume that the variables f, g, h, i, and j are assigned to registers $s0, $s1, $s2, $s3, and $s4, respectively. Assume that the base address of the arrays A and B are in registers $s6 and $s7, respectively.

B[8] = A[i?j]

Problem 3. Translate 0xabcdef12 into decimal. You may simply assume that it is an unsigned integer.

Problem 4. Assume $t0 holds the value 0x00101000. What is the value of $t2 after the following instructions?

     slt $t2, $0, $t0
     bne $t2, $0, ELSE
     j DONE
ELSE: addi $t2, $t2, 2
DONE:

Problem 5. What decimal number does the bit pattern 0x0C000000 represent if it is a floating point number? Use the IEEE 754 standard. Explain in detail how you get your answer.

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Linked Lists
You have been provided the code for doubly linked list: doubly_linked_list.py. Using this code, perform the following tasks:
An interesting use-case of a linked list is to track edits in a “Undo – Redo” interface. Thus far we have really only talked about connecting singular data points in the nodes. The following task will deviate from that:
I want you to create an interface of an application that will alter the contents of a list. As you alter the contents of the list, you should be able to retrieve the previous state of the list as you change it, much like being able to undo and redo changes in a
document. Your application interface should support three basic functions, undo(), redo(), and do() where “do()” is what actually alters the contents of the list. You can interpret “do()” as what happens when you type in a word processor. I want you to
“do()” the following actions:
Create a list with the initial values of: [5,3,2,1,4,8]
Sort the list.
Reverse the list
Add a 9 to the end of the list.
Undo back to before you reversed the list.
Add a 9 to the end of the list again
Undo back to the original state of the list.
After every operation, print the current state of the “application”, remember that your application’s only functionality is to change the state of the list.
Stacks
Using a linked structure (doubly, or singly linked list) create a stack structure. From this structure (the stack) and the included text file palindrome.txt, determine which of the words within the file are proper palindromes. Your solution must utilize the stack
structure. However, You may use other tools/functions within the language of your choice to check your work.
Queues
Finally, this last section is not a coding challenge.
A remote printing system serving a large pool of individuals can be very complicated to support. In theory, a simple queue that takes in print requests and dequeue’s them once they have been processed would serve all the required operations. However, there
are significant problems that arise as far as user requests and other things. What are some of the issues that you can see with a simple queue that only supports First In First Out operations typical of a queue? (Enqueue, dequeue, peek, etc.) For your submission,
you can either submit a second video of 1-2 minutes in length, or small report of approximately 1 page that discusses the various shortcomings of a queue to support a remote printer system.
Your submission should be accompanied by a 8 minute walk-through of your code. This analysis should include your decision making process, the logic behind you code, an your original thoughts that went into the decision making on why your code is written
and performs in the manner in which you have written it. If you can not adequately explain how your code functions, it is difficult to believe that you created it yourself as it is inherently difficult to make that which you don’t understand.