Suppose the memory cells at address $10$ through $1$B in the machine language described in appendix C contain the following bit pattern $($the adjacent figure$).$ The program counter contains $10.$ AddressValue$1011111812221315143215141653172118$A$119031$AC$01$B$00$ a$)$ Fill in the table below with the contents of the Program Counter $($PC$)$ and Instruction Register $($IR$)$ after each instruction execution $(15$ pts$)$: STEP PCIRExecution PC $=101121118$R$1=$ A$1$ Page $7$ of $8$ CSCI$205$ Assessment $1$ V$6$ Fall $2024-2025$ a$-$ What is the final bit pattern value of each if the following $(10$ pts$)$ Register $1$Register $2$Register $3$Content of PC registerBit pattern of memory of the address $14$ b$)$ Determine if an overflow occurs when adding the values in registers $1$ and $2$ in step $4.(5$ pts$)2\mathrm{.}5$Translate the following instructions based on Appendix C:$1.$ Load the bit pattern from memory cell CD into register A:$2.$ Store the bit pattern from register $1$ into memory cell EF:$3.$ Add the bit patterns in registers B and C and store the result in register A: $4.$ Rotate the bit pattern in register B one bit to the right $2$ times:$5.$ Load the immediate value $7$F into register $3$: Question $7-$ BONUS $[$pts$]$: Page $8$ of $8$ CSCI$205$ Assessment $1$ V$6$ Fall $2024-2025$APPENDIX C Op$-$code Operand Description$1$RXY LOAD the register R with the bit pattern found in the memory cell whose address is XY$\mathrm{.}2$ RXY LOAD the register R with the bit pattern XY$\mathrm{.}3$ RXY STORE the bit pattern found in register R in the memory cell whose address is XY$\mathrm{.}40$RS MOVE the bit pattern found in register R to register S$\mathrm{.}5$ RST ADD the bit patterns in registers S and T as though they were twos complement representations and leave the result in register R$\mathrm{.}6$ RST ADD the bit patterns in registers S and T as though they represented values in floating$-$point notation and leave the floating$-$point result in register R$\mathrm{.}7$ RST OR the bit patterns in registers S and T and place the result in register R$.8$ RST AND the bit patterns in register S and T and place the result in register R$\mathrm{.}9$ RST EXCLUSIVE OR the bit patterns in registers S and T and place the result in register R$.$A R$0$X ROTATE the bit pattern in register R one bit to the right X times. Each time place the bit that started at the low$-$order end at the high$-$order end.B RXY JUMP to the instruction located in the memory cell at address XY if the bit pattern in register R is equal to the bit pattern in register number $0.$ Otherwise, continue with the normal sequence of execution. $($The jump is implemented by copying XY into the program counter during the executeC $000$ HALT execution. Can you tell me a second part of a from where you get the register