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OGAB® ROAD
Advanced TRS®

Utilising patented Active Flow Control technology, Ogab® has developed a breakthrough system that decreases aerodynamic drag on landing gear to reduce air flight fuel consumption.

OGAB®

When aviation landing gear is deployed in flight prior to landing, it causes significant drag force on the plane meaning that increased fuel consumption is required to maintain speed. This negative effect of drag creates a less stable landing, higher costs and increased CO2 emissions for every flight.

Ogab Wind Tunnel

Advanced TRS®

At speeds of 70mph+ aerodynamic losses can account for up to 70% of the power demand from the engine. Changing the vehicle power source whether it is fuel, hybrid or electric will not reduce power consumption.

To reduce power consumption, we must resolve this critical issue of aerodynamic drag.

With our breakthrough research, we have achieved unprecedented reductions in drag coefficient on mid-sized commercial vehicles and HGVs by up to 41%. This results in a significant increase in HGV MPG (miles per gallon) capabilities.

Our Advanced TRS® technology, which is powered by energy that would otherwise be lost, not only offers lower fuel related costs, it also improves overall vehicle performance and offers a significant reduction in carbon emissions.

In addition to this, the technology reduces the long-term operational demand on the engine, extending the vehicle’s lifespan as a result.
Read on to learn more on how we achieved these game-changing results…

Environmental concerns, resource scarcity and excessive cost of fossil fuels have obligated governments and industries to reduce the greenhouse gas emissions and deploy effective fuel saving strategies in various industrial sectors. The transportation sector is one of the most energy-intensive industries and is responsible for a substantial portion of the global CO2 footprint.

Vehicle manufacturers seek for novel techniques and solutions to reduce the road resistance of the motor vehicles and hence the fuel consumption and GHG emissions.

This resistance consists of a mechanical part as well as an aerodynamic facet. For a highway environment, in which most commercial goods are shipped, aerodynamic losses which are dissipative and cannot be recovered are the dominant source for power and fuel consumption.

Therefore, our researchers have explored various active and passive flow control strategies to reduce the aerodynamic drag.

At stop-and-go speeds, drag isn’t significant, but the faster you go, the more it matters. At 70 mph, a vehicle will be overcoming four times the aerodynamic drag compared to the same vehicle at 35 mph.

At Ogab®, we offer a solution to reduce aerodynamic drag and reduce fuel consumption by utilising energy that would otherwise be lost to power our Active Flow Control methods. To find out more, click on the commercial vehicle case studies below.

Sprinter Van

A giant step forward of 41% reduction in drag coefficient from 0.399 to 0.235

Tractor trailer lorry

An amazing 40% reduction in drag coefficient from 0.6 to 0.36.

Get the full facts and insight on the environmental impact of aviation landing below.