For each of the following complex operations, write a sequence of PIC 16F1829 instructions - not C codethat performs an equivalent operation. Assume that 8-bit variables TEMP and COUNT have been defined for cases where you may need extra variables. Finally, please note that you are not required to write comments describing each instruction. You may certainly do so if you feel comments will make your solution clearer to the instructor. Remember, you can assume that 8-bit variables TEMP and COUNT have been defined for cases where you may need extra variables. a. You are given a 16-bit variable, X, and an 8-bit variable, CT. You can access individual bytes within X using the 8-bit variables XL and XH (XL is the least significant byte). Write an instruction sequence setting CT equal to the number of nonzero bits in X. For example: If X = 0x0FF0 = 0000 1111 1111 00002, CT = 8 If X = 0x1234 = 0001 0010 0011 01002, CT = 5 Your solution should not change XL or XH. For each of the following complex operations, write a sequence of PIC 16F1829 instructions - not C codethat performs an equivalent operation. Assume that 8-bit variables TEMP and COUNT have been defined for cases where you may need extra variables. Finally, please note that you are not required to write comments describing each instruction. You may certainly do so if you feel comments will make your solution clearer to the instructor. Remember, you can assume that 8-bit variables TEMP and COUNT have been defined for cases where you may need extra variables. a. You are given a 16-bit variable, X, and an 8-bit variable, CT. You can access individual bytes within X using the 8-bit variables XL and XH (XL is the least significant byte). Write an instruction sequence setting CT equal to the number of nonzero bits in X. For example: If X = 0x0FF0 = 0000 1111 1111 00002, CT = 8 If X = 0x1234 = 0001 0010 0011 01002, CT = 5 Your solution should not change XL or XH