#OAWidget ".flex-container", //Selector: Declare which container the navigation elements should be appended too. Default container is the flexSlider element. If the given element is not found, the default action will be taken. //String: Select the sliding direction, 'horizontal' or 'vertical' //Boolean: Animate slider automatically //Integer: Set the speed of the slideshow cycling, in milliseconds //Integer: Set the speed of animations, in milliseconds //Boolean: Create navigation for previous/next navigation? (true/false) //Boolean: Create navigation for paging control of each clide? Note: Leave true for manualControls usage //Boolean: Allow slider navigating via keyboard left/right keys //Boolean: Allow slider navigating via mousewheel //String: Set the text for the "previous" directionNav item //String: Set the text for the "next" directionNav item //Boolean: Create pause/play dynamic element //String: Set the text for the "pause" pausePlay item //String: Set the text for the "play" pausePlay item //Boolean: Randomize slide order //Integer: The slide that the slider should start on. Array notation (0 = first slide) //Boolean: Should the animation loop? If false, directionNav will received "disable" classes at either end //Boolean: Pause the slideshow when interacting with control elements, highly recommended. //Boolean: Pause the slideshow when hovering over slider, then resume when no longer hovering //Selector: Declare custom control navigation. Example would be ".flex-control-nav li" or "#tabs-nav li img", etc. The number of elements in your controlNav should match the number of slides/tabs. //Callback: function(slider) - Fires when the slider loads the first slide //Callback: function(slider) - Fires asynchronously with each slider animation //Callback: function(slider) - Fires after each slider animation completes //Callback: function(slider) - Fires when the slider reaches the last slide (asynchronous)

Eddy Current Separator - Strong Efficient Separation

Dings Eddy Current Separators

Dings Eddy Current Separators use powerful rare earth magnets for recovering aluminum and other non ferrous metals from recyclables, plastics, glass, material processed at composting or waste-to-energy facilities, automotive shredder residue, and other processed material or minerals.

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VIDEOS

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"We switched to Dings Magnetics after a competitor eddy current separator failed causing over three weeks of downtime. Dings is very responsive to our needs and the Fine Eddy Current Separator we purchased from them has been running since day one!"

FEATURES
Rare Earth Magnets
Deep Magnetic Field
Larger Magnetic Field
Triple Layer Protection

BENEFITS	Feature/Benefit Page
High strength, long life
Increases non ferrous recovery
Excellent recovery of heavy non ferrous metals
Longer life, lower maintenance and repair costs

LITERATURE

Brochure

Instructions

Specifications

Application Data Sheet

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4740 W Electric Ave
Milwaukee WI 53219
Ph 414-672-7830 Fax 414-672-5354

How Eddy Current Separators Work

Material is fed onto the conveyor belt of the eddy current separator, which moves it across the magnetic rotor where separation occurs. The two streams of material discharge into a housing. The housing has a splitter to divide the non-ferrous metal from the non-metallic material, such as paper, plastic, wood or fluff.

The key component of the eddy current separator is the magnetic rotor, which has a series of permanent rare earth magnets mounted on a support plate attached to a shaft. The magnetic rotor is surrounded by (but not attached to) a wear shell which supports the conveyor belt. This allows the rotor to spin independently and at a much higher speed than the wear shell and belt.

When a piece of non-ferrous metal, such as aluminum, passes over the separator, the magnets inside the rotor rotate past the aluminum at high speed. This forms eddy currents in the aluminum which in turn create a magnetic field around the piece of aluminum. The polarity of that magnetic field is the same as the rotating magnet, causing the aluminum to be repelled away from the magnet. This repulsion makes the trajectory of the aluminum greater than that of the nonmetallics, allowing the two material streams to be separated.