2. Write the assembly language program code for the following flowchart. b) Sketch a diagram showing that the data transfer from CPU to memory/ from memory to CPU including the busses. START Get 1" number from location 005AH Get 2nd number from location 005BH Add the two numbers Store the result in location 005CH END

MUL & DIV instruction in Assembly Language Table 1 EAX EBX ECX EDX 10H 20H 2H 0H Refer to Table 1 above for the following tasks.Write your own code in Visual Studio 2019 to execute the instruction, then fill in the blanks with the correct value of the registers. Also, note the changes. **Note: Always start with the initial value of the registers given in Table 1 above for each question (a-f) This means you have to execute only one instruction per debugging session e.g. execute MUL BX and then debug and get the values of the registers and then stop. Then start again with MUL CX. Answer all questions in 32bit format XXXX XXXX e.g. 0000 1000 with only one white space in between a. MUL BX EAX EBX ECX EDX Answer Answer Answer Answer b. MUL CX EAX EBX ECX EDX         c. MUL AX EAX EBX ECX EDX         d. DIV BX EAX EBX ECX EDX         e. DIV CX EAX EBX ECX EDX         f. DIV AX…

Flowchart Assembly program

Overall Requirements Write two programs encode.toy and decode.toy. Each TOY instruction must have corresponding pseudocode. (This is auto-generated by Visual X-Toy – see below.) It's also good practice to add line breaks between logically related "sections" of TOY code and write a comment above each "section" explaining what that code does. encode.toy Write a TOY program encode.toy to encode a binary message using the scheme described above. Repeatedly read four (4) bits m1, m2, m3, m4 from TOY standard input and write the seven (7) bits m1, m2, m3, m4, p1, p2, p3 to TOY standard output. Stop upon reading FFFF from standard input. p1 = m1 ^ m2 ^ m4 p2 = m1 ^ m3 ^ m4 p3 = m2 ^ m3 ^ m4 Recall that ^ is the exclusive or operator in Java and TOY. This captures the parity concept described above. decode.toy Write a TOY program decode.toy to decode and correct a Hamming encoded message. Repeatedly read seven (7) bits m1, m2, m3, m4, p1, p2, p3 from TOY standard input and write the four…

i. Explain briefly, using a flow graphic and an Intel microprocessor, how the combination of two binary integers occurs. ii. Create a pseudocode and code in any of the basic assembly languages for the above flow chart. iii. For the reduction procedure, repeat steps i. and ii. above.

Example: translate the following C statement to assembly language and machine code. x-y*(y+z); Assume x,y and z are stored in memory locations 0,1 and 2 and there are general purpose registers called A,B,C...etc

creating an assembly program that performs addition and subtraction write assembly code that does the following: Create a DWORD variable called "sum". Its initial value doesn't matter. Set the registers eax, ebx, ecx, and edx to whatever values you like Perform the following arithmetic: (eax + ebx) - (ecx + edx) Move the result of the above arithmetic into the sum variable. I am attaching an image of starting point of the code

Implementation Tasks Overall Requirements Write two programs encode.toy and decode.toy. Each TOY instruction must have corresponding pseudocode. (This is auto-generated by Visual X-Toy – see below.) It's also good practice to add line breaks between logically related "sections" of TOY code and write a comment above each "section" explaining what that code does. encode.toy Write a TOY program encode.toy to encode a binary message using the scheme described above. Repeatedly read four (4) bits m1, m2, m3, m4 from TOY standard input and write the seven (7) bits m1, m2, m3, m4, p1, p2, p3 to TOY standard output. Stop upon reading FFFF from standard input. p1 = m1 ^ m2 ^ m4 p2 = m1 ^ m3 ^ m4 p3 = m2 ^ m3 ^ m4 Recall that ^ is the exclusive or operator in Java and TOY. This captures the parity concept described above. decode.toy Write a TOY program decode.toy to decode and correct a Hamming encoded message. Repeatedly read seven (7) bits m1, m2, m3, m4, p1, p2, p3 from TOY standard…

Microprocessor

Hello, I'm having a significant challenge with this problem, and I would greatly appreciate your assistance in breaking it down into clear and labeled steps for better comprehension. Could you please guide me through this problem step by step while also providing labels for each part?