The Queensland Government Department of Agriculture and Fisheries (DAF) aims to manage fisheries utilising the best available science taking into account environmental, economic, social and cultural impacts.
Through the Government’s Sustainable Fisheries Strategy (SFS, 2018–2020), plans are actioned to establish regular stock assessments (ongoing annually or at least every two years) to provide the science for assessing key fishery stocks against reference points.
To conduct regular stock assessments of finfish, Fisheries Queensland and the SFS expert panel have directed DAF staff to investigate the use of off-the-shelf stock-assessment models. This recommendation is for delivery of recurring information to support fishery harvest strategies; and followed a review to support the use of common stock assessment methods and models (FRDC Research Code: 2014-039; http://www.frdc.com.au/media-and-publications/fish/fish-vol-26-3/skills-shortage-forecast-for-stock-assessments). This proposal is to progress Qld’s adoption of FRDC recommendations and research: project 2014-039.
DAF’s training needs are by 31st May 2019.
The aim for this training is to build stock assessment systems for DAF and help support similar national needs in Australia.

This project addresses the national research priority "Ensuring that Australian fishing and aquaculture products are sustainable and acknowledged to be so", identified by FRDC as part of their RD&E Plan for the period 2015-2020. Further, this project addresses a research priority listed in FRDC's April 2018 Competitive round call for Expressions of Interest "To gain a better understanding of the spawning aggregations and dynamics of pearl perch". This project also addresses a Fisheries Queensland’s priority identified in their 2017 Monitoring and Research Plan "Research into lifecycle characteristics of pearl perch".

Outputs from a recent stock assessment suggested that the pearl perch stock, which extends southwards into New South Wales waters, is transitional depleted and stock recovery is necessary. This requires an improvement in egg production achievable through the protection of spawning animals. Knowledge of the pearl perch’s spawning dynamics would enable fishery managers to make evidence-based decisions regarding the harvest strategies that increase egg production and, therefore, build the stock biomass. For example, should patterns of pearl perch spawning aggregations be located, like those of the confamilial West Australian dhufish (belonging to the same taxonomic fish family), spatial closures could be employed to protect these aggregations. Similarly, temporal closures are currently used to avoid excessive fishing mortality on coral trout spawning aggregations and similar protection for pearl perch may be appropriate if spawning is timed to coincide with certain biological or seasonal cues. A thorough understanding of these spawning dynamics of the pearl perch is necessary to inform management of the species.

There is a need, therefore, to: (1) collect relevant biological information pertaining to the spawning dynamics of pearl perch, (2) supplement current information with fishery-independent data to better define temporal and spatial spawning patterns over the entire extent of the species’ distribution, and (3) identify areas likely to support spawning aggregations, if any, and to assess the movement to and from these spawning aggregations.