Aquaculture Facilities

Preventing Escape of Non-Native Species from Aquaculture Facilities in Florida, Part 1: General Considerations and Regulations

Quenton M. Tuckett, Carlos V. Martinez, Jared L. Ritch, Katelyn M. Lawson, and Jeffrey E. Hill

Using Airlifts to Collect and Concentrate Copepod Nauplii

Eric Cassiano, Matthew DiMaggio, Cortney Ohs, and John Marcellus

A Semen Extender for the Short-Term Storage of Fish Sperm

Frank A. Chapman

Design and Operation of Egg Collectors for Pelagic Spawning Marine Fishes

Cortney Ohs, John Marcellus, Eric Cassiano, and Jason Broach

Comparison of Energy Needed to Heat Greenhouses and Insulated Frame Buildings Used in Aquaculture

P. A. Fowler, R. A. Bucklin, C. D. Baird, F. A. Chapman, and C. A. Watson

Preventing Escape of Non-Native Species from Aquaculture Facilities in Florida, Part 3: Structural Strategies

Quenton M. Tuckett, Carlos V. Martinez, Jared L. Ritch, Katelyn M. Lawson, and Jeffrey E. Hill

Preventing Escape of Non-Native Species from Aquaculture Facilities in Florida, Part 2: Facility Evaluation Strategies

Jeffrey E. Hill, Quenton M. Tuckett, Carlos V. Martinez, Jared L. Ritch, and Katelyn M. Lawson

Preventing Escape of Non-Native Species from Aquaculture Facilities in Florida, Part 4: Operational Strategies

Quenton M. Tuckett, Carlos V. Martinez, Jared L. Ritch, Katelyn M. Lawson, and Jeffrey E. Hill

Energy Efficiency for Florida Aquaculture Facilities: Energy Audits

Jordan Neff, Eric Cassiano, Micah Alo, and Craig Watson

The energy consumption on aquaculture facilities can account for a large portion of on-farm operational costs. Energy associated with keeping aquatic plants and animals alive contributes to the total cost of operation.  Even on a moderately sized farm, excessive energy consumption can be a limiting factor in the success of an aquaculture business. When recirculating aquaculture systems and indoor climate-controlled production methods are used, the cost of energy can be as large as the costs associated with labor and feed. Evaluating energy use on a facility allows for the opportunity to identify areas where energy may be used more efficiently. Increasing energy efficiency can help reduce overall operational costs and increase profitability. This publication is one in a series that details techniques and methods for reducing energy consumption on aquaculture farms.

Use of Copper in Marine Aquaculture and Aquarium Systems

Roy P. E. Yanong

FA165 discusses the use of “bluestone” or “blue copperas” copper sulfate — basic copper chemistry, chelated copper, toxicity to target and non-target organisms, determining dose, reaching and maintaining desired concentrations, and removing copper from the system. Includes references.

Energy Efficiency for Florida Aquaculture Facilities: Variable Frequency Drives

Jordan Neff, Eric Cassiano, Micah Alo, and Craig Watson

Energy consumption is often a primary contributor to the cost of operation in aquaculture. Even on a moderately sized farm, excessive energy consumption can be a limiting factor in the success of an aquaculture business. Reducing operational costs can increase total profitability. Identifying inefficient energy use and implementing energy-efficient technologies can help reduce the total cost of operation. This publication is one in a series that details techniques and methods for reducing energy consumption to decrease operational costs on aquaculture facilities. In many aquaculture practices, especially finfish culture, water must be moved from one location to another.  Pumping water often accounts for a significant portion of a facility’s energy use and operational costs.  This publication discusses how variable frequency drives can be used to reduce energy consumption of pumps.

An Introduction to Sizing Centrifugal Pumps in Aquaculture

Jordan Neff, J. A. Watson, and W. A. Porter

This publication explains the basic methodology used to size pumps for aquaculture systems; however, these concepts can be applied to a variety of pumping systems. Written by Jordan Neff, J. A. Watson, and W. A. Porter, and published by the UF/IFAS Department of Agricultural and Biological Engineering, September 2022.