Faster transfers
Fills the pipe instead of stalling it.
More capacity from the network you already have. Without touching a single handset.
Most traffic runs over TCP, and TCP only learns about congestion once packets are already queuing or being dropped. At peak hours, big downloads and updates fill the queues, so a video call or a game waits in the same line as a software update. The subscriber experiences a slow connection, even though on paper the link still has capacity.
Our TCP optimisation layer sits in the traffic path, as software. It keeps queues short, paces the heavy flows and gives real-time traffic the front of the line, so the same link serves more users with a better experience. No client software, no handset changes, no router swap at the subscriber's home.
Application-aware shaping in the traffic path. Nothing to install on handsets.
Four pieces work together. TCP tuning keeps transfers moving, active queue management stops delay from building up, the automatic controller adapts to the link as conditions change, and DPI recognises each application so it can be treated accordingly.
Fills the pipe instead of stalling it.
Keeps delay low even at full load.
Learns the link and corrects in real time.
Calls and games first, updates can wait.
Bufferbloat is the extra delay you feel when a link is busy: a call stutters while someone downloads a file. Public bufferbloat tests turn it into a letter grade, and it is one of the clearest ways to see what the optimisation does.
Example values for a typical congested link. Your own network is measured in a real trial.
When traffic is shaped by application and by where it sits in the network, a congested access point or port can carry more subscribers before anyone notices a slowdown. That means growing without an immediate upgrade, and less pressure on upstream and backhaul.
Illustrative figures for this technology category, based on publicly documented results. A real deployment is modelled on your own network data.
Because the layer sees every flow, it also shows you what is happening: which access points are close to congestion, which applications are using the link and which subscriber is having the worst time. Support can start from facts instead of guesswork.
The same technology adapts to the type of network. These are the scenarios where congestion shows up first.
Dozens of users share each access point, and the evening peak turns video calls into stutter.
Traffic is shaped per access point and per application: calls stay clear and each point carries more subscribers.
A busy OLT port saturates long before the fibre is full.
Shaping by network topology keeps ports out of congestion, so each one serves more customers.
Busy cells and expensive backhaul at peak hours.
Heavy flows are paced and real-time traffic goes first, which defers the next capacity upgrade.
Long delays and scarce bandwidth make standard TCP slow.
TCP tuning and queue control make better use of every megabit on the link.