Marine Biosystems’ F5 Biopellet Reactors Are 3D Printed for Efficiency in Aquariums
Aquariums are exceptionally delicate biospheres which require a number of fine-tuned systems to function properly. One of those systems, the biopellet reactor, is meant to provide a reaction chamber where a carbon-based food source, or biopellet, is tumbled to provide an ideal medium for the growth of bacteria. Those bacteria consume nitrate and phosphate, and the goal is to improve the efficiency of the churning of the media to even flow, minimize clumping, and improve the efficiency of the product.
The Marine Biosystems F5 uses a patent-pending finned lifting plate that lifts the entire biopellet mass on a cushion of water, and it uses 3D printing to construct a product which features an innovative design.
“The unique feature of these reactors is the dispersion plate, which cannot be easily injection molded or milled from acrylic,” Tom Blaha, the founder of Marine Biosystems, told Reef Builders. “When water is passed through the plate, the shape of the plate, combined with the radially spaced vertical outlet holes, forces the water under the pellets in a broad shearing sheet. The weight of stationary pellets above forces that sheet to build pressure until it lifts the entire pellet column upward, releasing it from the bottom the reactor. Once its lifted then it begins moving and fluidizes.”
The design of the F5 means very little energy is needed to start the mixing and maintain the motion.
3D printing allowed the Chardon, Ohio-based Marine Biosystems team the ability to produce one-off parts, while simultaneously being able to scale for the later demands of mass production.
The company says that the Marine Biosystems F5 Reactors “are the first commercially available biopellet reactors made up of additive manufactured (3D Printed) components.”
Additive manufacturing allowed the design team to create the patent pending lifting plate design, and the result, they say, is the most efficient reactor on the market. The reactor is capable of “fluidizing” more than 400 ml of biopellets with a very small 67 GPH pump, and the assembly itself fits within a 3″ x 5″ footprint within the tank. The F5 fluidizing plate forces water under the pellets to create a high pressure zone of spinning water within the chamber.
The top and bottom plates were printed in ABS Plastic and then attached to an acrylic reaction chamber.
What do you think of this aquarium system designed with 3D printing? Let us know in the Marine Biosystems F5 forum thread on 3DPB.com. Check out the F5 in action in the video below.
You May Also Like
Interview with Scott Sevcik, VP Aerospace Stratasys, on 3D Printing for Aviation and Space
Out of all the possible industries that are deploying more 3D printers, aerospace is probably the most exciting. By reducing the weight of aircraft components, by iterating more, by integrating...
Researchers Use Autodesk Ember 3D Printer to Characterize 3D Printed Lenses
In the recently published ‘Characterization of 3D printed lenses and diffraction gratings made by DLP additive manufacturing,’ international researchers studied digital fabrication of optical parts using DLP 3D printing. Examining...
3D Printing in Dental Prosthetics: The Effects of Parameters on Fit & Gap
In the recently published ‘Effects of Printing Parameters on the Fit of Implant-Supported 3D Printing Resin Prosthetics,” authors Gang-Seok Park, Seong-Kyun Kim, Seong-Joo Heo, Jai-Young Koak, and Deog-Gyu Seo delve...
Longer3D Launches the Orange 10, Affordable SLA 3D Printer
3D printer manufacturer Longer3D has launched a highly competitive resin printer, the Longer Orange 10, an affordable SLA 3D printer with performance and specs that position it competitively in its...
View our broad assortment of in house and third party products.