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FAQs
What pumps are compatible with the Turret™?
It supports skid‑mounted, submersible, and amphibious pumps. It's compatible with most vacuum‑prime pumps or pump systems with priming units.
How is a Turret™ installed and mobilized on site?
It involves unloading, attaching floats, connecting to the pipe and suction line, and priming the pump. It can be moved and deployed by a small team.
What are the steps to get the Turret™ operational in the field?
1. Unload. 2. Connect pipe and breather. 3. Slide to water. 4. Attach float. 5. Prime pump. 6. Start pumping.
Can Turret™ systems be connected in twin or tri-spool configurations?
Yes. Y‑spool and tri‑spool connectors allow multiple Turret™ units to feed into one pump inlet. Solutions for 4 & 5 Turrets are also available (subject to pump capacity).
What accessories are available with the Turret™?
Accessories include floats with fastener kits, reducers, mining hose, poly pipe, and spools.
What is the K factor loss for calculations?
Factor in 0.5 for max flow of 1000 m³/h.
How does the Turret™ compare to conventional systems in terms of friction losses?
Even with screens, Turret™ exhibits lower head losses due to its efficient flow design.
How easy is it to maintain or clean the Turret™?
Minimal maintenance—clean with a water jet, inspect periodically, and re‑float if necessary. It has no moving parts.
Is the Turret™ resistant to blockage from aquatic weeds or minerals?
Yes. We can supply wide screens to handle blockage risks, especially in high‑salinity and vegetation‑rich environments.
What inspired the invention of the Turret™?
The Turret™ was invented by Rob Hair, a dewatering expert, after experiencing repeated pump failures caused by vortexing and cavitation in shallow water bodies. It was developed through practical field experience and engineering innovation.
How does the Turret™ help reduce infrastructure costs in decanting?
It eliminates the need for capital intensive (expensive) decant stations, pontoons, and barges, cutting capital costs and operational complexities.
In which industries is the Turret™ currently being used?
Mining, construction, agriculture, industrial, emergency services, and water infrastructure globally.
What are the use cases for Turret™ in mining, firefighting, and agriculture?
In mining: tailings dewatering; firefighting: accessing shallow water for processing; agriculture: irrigation and livestock water access.
Where has the Turret™ been deployed globally?
Australia, New Zealand, Fiji, Turkey, Mongolia, African subcontinent, Canada, South America & the USA.
How has the Turret™ helped improve safety and compliance in tailings dam operations?
It lowers water volume in TSFs and eliminates personnel exposure to pontoons, supporting environmental and safety compliance.
How does the Turret™ lower total cost of ownership compared to decant stations?
It reduces upfront capital cost, requires no infrastructure in the pond, and cuts recurring maintenance and safety costs. It enhances pump life and reduces downtime.
What milestones have Turret Engineering achieved since launching the product?
Since 2016: patented innovation, multiple generations of products, global deployments, continuous design improvements, and ISO accreditation.
What ISO accreditations does Turret meet?
ISO 9001 (Quality), ISO 45001 (Safety), ISO 14001 (Environmental).
What are the risks of traditional critical submergence methods in tailings dams?
They require constant recalculation, lead to inefficient deep ponding, and increase risk of ingesting tailings or damaging infrastructure due to mismanagement.
What stability and failure modes does the Turret™ help mitigate?
It helps manage pond location and volume, reducing risks like liquefaction, internal erosion, and overtopping of tailings embankments.
Can the Turret™ help reduce the risk of tailings dam collapse?
Yes. By maintaining low pond volumes and moving the intake away from embankments, it supports safer TSF operations.
What are the technical innovations behind the Turret™ radial intake design?
It includes a wide radial suction, vacuum operation, and a sideways intake approach that mimics critical submergence at shallow depths.
How does the Turret™ inhibit sediment and tailings ingestion?
Its floating design ensures water is drawn from near the surface, where sediments are less likely to accumulate.
What CFD simulations and performance metrics support the Turret™ design?
ANSYS Fluent CFD models were used to simulate flow and turbulence, confirming lower head loss and minimal cavitation risk.
How is turbulence and cavitation minimized in the Turret™ system?
Smooth flow and radial suction reduce shear regions where turbulence and cavitation usually occur.
What is the predicted onset flow rate for cavitation at various temperatures?
At 30 °C, cavitation may begin at around 2545 m³/h, as determined through CFD simulation using vapour pressure data.
Has the Turret™ been validated through academic or industry research?
Yes. It has been tested using computational models with design input from academic experts and field‑tested across various industries.
What is Turret™ and how does it solve shallow water pumping challenges?
The Turret™ is a floating water intake solution designed to draw water from just below the surface using a radial intake. It inhibits vortexing, cavitation, and sediment ingestion, commonly used in shallow water pumping, ensuring more efficient and safer operations.
How does the “Principle of Falsification” apply to the Turret™’s design?
This principle 'tricks' the system into thinking the pump intake is critically submerged by turning the intake sideways, expanding the intake area, and operating under vacuum—eliminating the need for deep water.
What makes the Turret™ different from traditional decant systems and intake structures?
Unlike traditional systems requiring deep ponds and complex calculations, the Turret™ uses a simple floating intake that is scalable, portable, and doesn't require pontoons or heavy infrastructure.
How does the Turret™ prevent vortexing and cavitation?
The radial design allows water to flow smoothly from just under the surface, eliminating the conditions that cause vortexing and the implosion of air bubbles that damage pumps.
What sizes of Turret™ are available and what are their flow capacities?
Three models: Turret™ 1.0 (1 m) for ~100 m³/h, Turret™ 2.0 (2 m) for >500 m³/h, and Turret™ 3.0 (3 m) for >1000 m³/h.
What is the minimum water depth requirement for each Turret™ model?
Turret™ 3.0 requires ~380 mm, Turret™ 2.0 operates at <50 mm, and Turret™ 1.0 requires ~180 mm depth.
Is the Turret™ system scalable for different site requirements?
Yes. Single, twin, and tri‑spool Turret™ configurations are available, with modular pump and float systems.
Can Turrets be transported by road, ship, or air freight?
Yes: please refer to our data sheet for dimensions and further details. Shipping of the 3 m Turret (Mega‑flow) requires a High Cube Container.
What safety or environmental standards does the Turret™ meet?
It supports best practices for management of tailings dams and aligns with industry regulations for tailings management.
What is the function of the external breather on the Turret™?
The breather and cap are designed to facilitate air exchange within the moulded ring, allowing for expansion and contraction due to temperature fluctuations.
What is the function of the internal breather in the Turret™ (1m & 3m)?
The internal breather facilitates priming by allowing trapped air to escape from the upper dome section of the Turret™.
