Write ONE complete assembly program to perform the following tasks:

a$.$ Set$-$up and initialise the table pointer to point to an array of dataset stored

at the program memory with a starting at address $002500$ and label it as

Array. The dataset has a total of D$\text{'}256\text{'}$ elements of $8-$bit, signed numbers

given in hexadecimal representation.

b$.$ Count positive elements $($excluding zero$)$ in Array and save the result in

POSNUM at address $010$ in data memory.

c$.$ Sum all the positive elements in the dataset and save the result as a $3-$byte

answer to file registers of addresses $0000$ until $0002$ at data memory using

the little$-$ endian format.

Requirements:

Your main program must start at address $000050.$ Make sure you include

sufficient comments to make your program readable and understandable.

For debugging purpose, in your assembly program, define a data section at the

program memory after your main program. The data section should be named Array and

consists of a dataset of D$\text{'}256\text{'}$ hexadecimal numbers.

Compile all the deliverables into ONE report which should include the following:

a$.$ Flow$-$chart of your program

b$.$ The full assembly program

c$.$ The entire full MPLAB Output Window clearly showing the result of the

build brocess

d$.$ The contents of the program memory $($displayed as Symbolic$)$ for main

programstarting at address $0x{00050}_{?}$

e$.$ The contents of the program memory $($displayed as Opcode Hex$)$ for Array

datasection

f$.$ The final contents of data memory block of BANK $0$

g$.$ The final contents of watch window with the following registers:

WREG,STATUS, TABLAT, TBLPTR$,$ FSR $x$

Data Set:$-$

$0$x$450$x$500$x$300$x$310$x$300$x$370$x$300$x$35$

$0$x$370$x$300$x$490$x$750$x$740$x$230$x$2$C $0$x$6$F

$0$x$4$D $0$x$750$x$680$x$610$x$6$D $0$x$6$D $0$x$610$x$64$

$0$x$200$x$540$x$610$x$720$x$650$x$710$x$200$x$41$

$0$x$7$A $0$x$690$x$7$A $0$x$200$x$420$x$690$x$6$E $0$x$20$

$0$x$4$D $0$x$6$F $0$x$680$x$610$x$6$D $0$x$610$x$640$x$20$

$0$x$410$x$730$x$720$x$690$x$310$x$460$x$540$x$69$

$0$x$3$F $0$x$3$C $0$x$760$x$310$x$2$E $0$x$460$x$290$x$54$

$0$xCB $0$x$750$xC$30$xA$20$xAE $0$xB$70$x$4$F $0$x$4$C

$0$xF$00$x$0$D $0$xC$50$xAD $0$x$390$xB$60$x$1$C $0$x$33$

$0$x$060$x$9$B $0$xE$40$x$220$x$480$xBC $0$xDA $0$x$7$F

$0$x$9$C $0$x$3$F $0$xE$10$x$700$x$370$xCA $0$x$3$A $0$x$51$

$0$xE$80$xD$10$xF$60$xD$00$xBC $0$x$3$B $0$x$3$E $0$xEC

$0$x$870$x$900$x$580$x$8$A $0$x$180$x$860$x$980$x$08$

$0$x$790$x$630$x$860$x$860$xDD $0$xC$80$xA$50$xAF

$0$x$960$xB$30$x$740$xD$70$xFC $0$x$000$x$3$E $0$xC$5$

$0$x$6$A $0$x$0$C $0$x$190$xCE $0$xE$60$x$870$x$690$xA$8$

$0$x$740$x$620$x$290$x$2$E $0$xE$90$xD$20$x$550$xFA

$0$xE$10$xF$70$x$5$B $0$x$160$x$3$C $0$xCB $0$xCE $0$xE$5$

$0$x$440$x$660$x$950$x$2$F $0$x$890$x$100$xF$70$xE$6$

$0$x$8$D $0$x$250$x$150$x$8$C $0$x$190$xA$90$xEB $0$x$8$B

$0$x$240$x$1$B $0$x$480$xF$80$x$650$x$570$x$4$C $0$x$5$A

$0$x$330$xD$50$x$340$x$200$xF$70$xE$00$xBD $0$xAF

$0$x$500$xF$30$x$270$xDF $0$xC$10$x$870$x$060$xA$5$

$0$xF$90$x$670$xB$90$x$780$x$800$xD$60$x$890$x$04$

$0$xF$90$x$430$xC$40$xAF $0$x$720$x$020$x$410$x$6$D

$0$xA$30$xA$10$xEB $0$x$200$xA$10$x$4$F $0$xCF $0$x$84$

$0$x$280$xB$70$xC$80$x$250$x$020$xC$50$xA$90$x$62$

$0$xAD $0$xA$10$xBB $0$x$660$xE$10$x$410$x$580$x$69$

$0$xE$50$xEF $0$x$5$B $0$x$0$B $0$x$2$E $0$x$170$x$400$x$66$

$0$xD$70$x$880$xC$40$x$430$xCB $0$x$320$xB$20$xFF

$0$x$630$xB$20$xD$30$x$560$xE$80$x$640$x$9$A $0$xC$8$