Aquaculture Models

These models and simulations have been tagged “Aquaculture”.

 This diagram shows the revised version of our systems modeling for PPUA 5390. Per stakeholder feedback we found a  model for renewable resources  which worked as the base for this. 

This diagram shows the revised version of our systems modeling for PPUA 5390. Per stakeholder feedback we found a model for renewable resources which worked as the base for this. 

The aims is to understand the N dynamics and shrimp growth in the intensive cultured shrimp
The aims is to understand the N dynamics and shrimp growth in the intensive cultured shrimp
 This diagram shows the revised version of our systems modeling for PPUA 5390. Per stakeholder feedback we found a  model for renewable resources  which worked as the base for this. 

This diagram shows the revised version of our systems modeling for PPUA 5390. Per stakeholder feedback we found a model for renewable resources which worked as the base for this. 

European Masters in System Dynamics 2016 New University of Lisbon, Portugal   Model to represent oyster individual growth by simulating feeding and metabolism. Builds on the core model in three ways: (i) partitions metabolic costs into feeding and fasting catabolism; (ii) adds allometry to clearance
European Masters in System Dynamics 2016
New University of Lisbon, Portugal

 Model to represent oyster individual growth by simulating feeding and metabolism. Builds on the core model in three ways: (i) partitions metabolic costs into feeding and fasting catabolism; (ii) adds allometry to clearance rate; (iii) adds temperature dependence to clearance rate.
M.Sc. in Environmental Engineering SIMA 2018 New University of Lisbon, Portugal   Model to represent oyster individual growth by simulating feeding and metabolism. Model (i) partitions metabolic costs into feeding and fasting catabolism; (ii) adds allometry to clearance rate; (iii) adds temperature
M.Sc. in Environmental Engineering SIMA 2018
New University of Lisbon, Portugal

 Model to represent oyster individual growth by simulating feeding and metabolism. Model (i) partitions metabolic costs into feeding and fasting catabolism; (ii) adds allometry to clearance rate; (iii) adds temperature dependence to clearance rate; (iv) illustrates how coupled model requires a substantial volume of water (a single oyster typically clears 20-30 m3 of water in one growth cycle)