#define ADC_REFERENCE_INT2560MV ((1 << REFS1) | (1 << REFS0))
/** Left-adjusts the 10-bit ADC result, so that the upper 8 bits of the value returned by the
- * ADC_GetResult() macro contain the 8 most significant bits of the result. */
+ * ADC_GetResult() macro contain the 8 most significant bits of the result.
+ */
#define ADC_LEFT_ADJUSTED (1 << ADLAR)
/** Right-adjusts the 10-bit ADC result, so that the lower 8 bits of the value returned by the
- * ADC_GetResult() macro contain the 8 least significant bits of the result. */
+ * ADC_GetResult() macro contain the 8 least significant bits of the result.
+ */
#define ADC_RIGHT_ADJUSTED (0 << ADLAR)
/** Sets the ADC mode to free running, so that conversions take place continuously as fast as the ADC
- * is capable of at the given input clock speed. */
+ * is capable of at the given input clock speed.
+ */
#define ADC_FREE_RUNNING (1 << ADATE)
/** Sets the ADC mode to single conversion, so that only a single conversion will take place before
- * the ADC returns to idle. */
+ * the ADC returns to idle.
+ */
#define ADC_SINGLE_CONVERSION (0 << ADATE)
/** Sets the ADC input clock to prescale by a factor of 2 the AVR's system clock. */
/* Reception complete, store the received byte if stop bit valid */
if (SRX_Cached)
- RingBuffer_Insert(&XMEGAtoUSB_Buffer, RX_Data);
+ RingBuffer_Insert(&UARTtoUSB_Buffer, RX_Data);
}
}
TX_Data >>= 1;
TX_BitsRemaining--;
}
- else if (!(RX_BitsRemaining) && !(RingBuffer_IsEmpty(&USBtoXMEGA_Buffer)))
+ else if (!(RX_BitsRemaining) && !(RingBuffer_IsEmpty(&USBtoUART_Buffer)))
{
/* Start bit - TX line low */
STXPORT &= ~(1 << STX);
/* Transmission complete, get the next byte to send (if available) */
- TX_Data = ~RingBuffer_Remove(&USBtoXMEGA_Buffer);
+ TX_Data = ~RingBuffer_Remove(&USBtoUART_Buffer);
TX_BitsRemaining = 9;
}
}