top of page

The breakthrough

Ocean’s new hull form typically reduces hydrodynamic drag on take-off by 40%, allowing increased max weight and useful load.  With lower drag in cruise reducing energy requirements and both flaps in propeller-slipstream and stub-wings in ground-effect augmenting lift, these cumulate to offer step-change useful-load, payload-range and work-efficiency advantages.

    

The benefits make the Ocean seaplanes exceptionally suited to carbon-neutral power systems and accommodating of both their weight and cost penalties.

New capability

Ocean seaplanes are bringing step-change improvements with respect to the major purchase-decision and operating opportunity factors.  These will wholly disrupt and expand out seaplane markets. 

1.  Range with payload doubled

Ocean’s revolutionary hull form, meeting no 'drag hump' on acceleration, typically reduces hydrodynamic drag on take-off by 40%, allowing major increases in max weight and useful load for given power.  Lower drag in cruise reduces energy requirements.  Flaps in propeller-slipstream and stub-wings in ground-effect augment lift.  These cumulate to offer a step-change increase in useful-load.  Used for fuel or other energy storage, aided by cruise efficiency advantages, this doubles range with payload n relation to conventionally conceived seaplanes. 

The same benefits make the Ocean seaplanes exceptionally suited to carbon-neutral power systems in accommodating any of both weight and cost penalties.

2.  Wave-height capability doubled

Ocean 12 seaplane take-off in rough water CGI

The new Ocean hull penetrates waves, damps pitching and minimises shock-loads.  Tolerance to twice a high short steep waves as conventional hull concepts allows reliable new operations in common open-water conditions and services on weather-sensitive coastlines.

3.  Access to five-times coastal facilities

Ocean 12 wings folded at dock CGI
Ocean 12 seaplane wings folded berthed CGI

With wings folded, Ocean seaplanes can taxi silently using an electric water thruster, for berthing or docking anywhere that similar sized vessels can go.  This increases accessible coastal facilities five-fold, otherwise prevented by fixed wingspans.  It allows the Ocean seaplanes into every marina, harbour and dock to multiply high-value route options.  It opens diverse options for resupply, engineering and shelter.   It evades costly landing fees and airport use and takes secondary surface transports out of the equation.

4.  Cost of ownership halved

Unaffected by saltwater, the Ocean composite structures extend airframe lives to forty years from five to ten years for seaplanes operated in salt water.  With reduced maintenance costs and down-time, higher natural utilisation and both load-capacity and work-efficiency advantages, the Ocean seaplanes slash the critical life-cycled cost per seat-mile and thus break-even charge rates.  Tropical salt-water operations will reduce these costs by typically 50%.

Ocean 12 seaplane loading at airfield CGI

5.  High levels of safety

Greater safety margins from wind and wave-tolerance and docility on water combine with effects of structure, system and buoyancy details to fundamentally reduce the risks of any incident and to remove causes of casualties given any remaining possibility of incident.  

6.  Night and IMC operations

New onboard sensing, guidance and display technologies combined with new water-based lighting technologies will enable safe commercial water operations at night.  This has far reaching implications in increasing the usage, competitiveness with landplanes, revenue capability and value in Ocean seaplane ownership and operation.

bottom of page