If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
SECOND group - NO FLUSH
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit and the next start bit to get into sync. Certain 100% bandwidth utilization patterns may never sync, which is a fundamental limitation of serial communication.This simple example shows how to use both the UART and USB Serial at the same time. Both are monitored for incoming bytes, and when either receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.
If begin(baud) is called after serial data is already incoming, any 0 data bit may be mistakenly detected as the first start bit, resulting in corrupted reception. If started out of sync, the receiver needs an idle time of 9 bits between a stop bit anther receives data, the results are printed to both.This simple example shows how to use both the UART and USB Serial at the same time. It may also be used while the serial port is active.