The oscilloscope capture shows one UART transmit frame (idle HIGH).

Data bits are transmitted

Verify odd parity of the received frame:

The oscilloscope capture shows one UART transmit frame (idle HIGH).

Data bits are transmitted

Decode the data byte (binary MSBLSB) and hexadecimal:

The oscilloscope capture shows one UART transmit frame (idle HIGH).

Data bits are transmitted

List the logic level (H/L) of each bit slot in the table below.

Let unsigned char x = 0xC3 and unsigned char y = 0x5A

.

Evaluate each expression and fill in the table (show binary with 8 bits).

Register ADCCTL, address 0x40038000:

Implement:

void setAdcChannel(uint8_t const ch);

Write the 3-bit channel number into CH2:CH0

; leave reserved bits unchanged.

Valid channels:

void setAdcChannel(uint8_t const ch) {
}

Assume big-endian byte ordering. Array arr1

starts at

unsigned long arr1[3] = {0x11223344UL, 0x55667788UL, 0x99AABBCCUL};

Fill in the byte addresses and contents for the first two array elements.

Register DEVCFG, address 0xC0041200:

Implement:

void setFlags(uint8_t const flags);

Write flags into FLAGS (bits 15:8); leave all other fields unchanged.

void setFlags(uint8_t const flags) {
}

The oscilloscope capture shows one UART transmit frame (idle HIGH).

Data bits are transmitted

Calculate the duration of a single bit ():

Consider the following C code snippet executed on the TM4C1294.

uint16_t buffer[5] = {0xA000, 0xA001, 0xA002, 0xA003, 0xA004};
uint16_t *ptr = buffer + 1;
for (int i = 1; i <= 3; i++) {
    *ptr += (uint16_t)i;
    ptr++;
}

Trace the loop and fill in the table. Then enter the final buffer content.

Content of buffer after execution: