diff --git a/examples/wireless/ht-wifi-network.cc b/examples/wireless/ht-wifi-network.cc index f707d5ae2..e37dddb4a 100644 --- a/examples/wireless/ht-wifi-network.cc +++ b/examples/wireless/ht-wifi-network.cc @@ -27,7 +27,7 @@ // This is a simple example in order to show how to configure an IEEE 802.11n Wi-Fi network. // -// It ouputs the UDP or TCP goodput for every HT MCS value, which depends on the MCS value (0 to 7), the +// It outputs the UDP or TCP goodput for every HT MCS value, which depends on the MCS value (0 to 7), the // channel width (20 or 40 MHz) and the guard interval (long or short). The PHY bitrate is constant over all // the simulation run. The user can also specify the distance between the access point and the station: the // larger the distance the smaller the goodput. diff --git a/examples/wireless/ofdm-ht-validation.cc b/examples/wireless/ofdm-ht-validation.cc index 6ab7ee875..ea091e357 100644 --- a/examples/wireless/ofdm-ht-validation.cc +++ b/examples/wireless/ofdm-ht-validation.cc @@ -18,7 +18,7 @@ // This example is used to validate NIST and YANS error rate models for HT rates. // -// It ouputs plots of the Frame Success Rate versus the Signal-to-noise ratio for +// It outputs plots of the Frame Success Rate versus the Signal-to-noise ratio for // both NIST and YANS error rate models and for every HT MCS value. #include "ns3/core-module.h" diff --git a/examples/wireless/ofdm-validation.cc b/examples/wireless/ofdm-validation.cc index 4a713feaf..e1abee7ef 100644 --- a/examples/wireless/ofdm-validation.cc +++ b/examples/wireless/ofdm-validation.cc @@ -20,7 +20,7 @@ // This example is used to validate NIST and YANS error rate models for OFDM rates. // -// It ouputs plots of the Frame Success Rate versus the Signal-to-noise ratio for +// It outputs plots of the Frame Success Rate versus the Signal-to-noise ratio for // both NIST and YANS error rate models and for every OFDM mode. #include "ns3/core-module.h" diff --git a/examples/wireless/ofdm-vht-validation.cc b/examples/wireless/ofdm-vht-validation.cc index cba52aab9..c63c7c3f6 100644 --- a/examples/wireless/ofdm-vht-validation.cc +++ b/examples/wireless/ofdm-vht-validation.cc @@ -18,7 +18,7 @@ // This example is used to validate NIST and YANS error rate models for VHT rates. // -// It ouputs plots of the Frame Success Rate versus the Signal-to-noise ratio for +// It outputs plots of the Frame Success Rate versus the Signal-to-noise ratio for // both NIST and YANS error rate models and for every VHT MCS value (MCS 9 is not // included since it is forbidden for 20 MHz channels). diff --git a/examples/wireless/vht-wifi-network.cc b/examples/wireless/vht-wifi-network.cc index c533ae309..8f09dbd05 100644 --- a/examples/wireless/vht-wifi-network.cc +++ b/examples/wireless/vht-wifi-network.cc @@ -26,7 +26,7 @@ // This is a simple example in order to show how to configure an IEEE 802.11ac Wi-Fi network. // -// It ouputs the UDP or TCP goodput for every VHT MCS value, which depends on the MCS value (0 to 9, where 9 is +// It outputs the UDP or TCP goodput for every VHT MCS value, which depends on the MCS value (0 to 9, where 9 is // forbidden when the channel width is 20 MHz), the channel width (20, 40, 80 or 160 MHz) and the guard interval (long // or short). The PHY bitrate is constant over all the simulation run. The user can also specify the distance between // the access point and the station: the larger the distance the smaller the goodput. diff --git a/examples/wireless/wifi-backward-compatibility.cc b/examples/wireless/wifi-backward-compatibility.cc index 78491b62e..1a76b08f2 100644 --- a/examples/wireless/wifi-backward-compatibility.cc +++ b/examples/wireless/wifi-backward-compatibility.cc @@ -27,7 +27,7 @@ // This is an example to show how to configure an IEEE 802.11 Wi-Fi // network where the AP and the station use different 802.11 standards. // -// It ouputs the throughput for a given configuration: user can specify +// It outputs the throughput for a given configuration: user can specify // the 802.11 versions for the AT and the station as well as their rate // adaptation algorithms. It also allows to decide whether the station, // the AP or both has/have traffic to send.