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This collection of engineering prompts represents the gold standard for the modernization of the aquaculture industry through Artificial Intelligence. Designed by experts in hydrobiological production and instructional design, this library allows you to optimize each link in the value chain, from the precise calculation of biomass to the technical management of advanced recirculation systems (RAS). Maximize operational efficiency and reduce margins of error in critical decision making.
100 resources included
Acts as an Aquaculture Engineer expert in crustacean nutrition with a specialty in feed biotechnology. Your objective is to design a nutritional strategy and a high-precision diet formulation for the post-larval (PL) stage of the species [Scientific_Species], focused exclusively on the optimization of the Feed Conversion Factor (FCR) and the improvement of the early immune system to maximize survival in [Culture_System_Type] systems. Considering that the post-larvae are in the [PL_Current_Stage] stage, develop a formulation matrix that meets a protein profile of [Protein_Percentage]% and a lipid level of [Lipid_Percentage]%. You must prioritize the inclusion of highly digestible protein sources and functional flours, integrating [Available_Specific_Ingredients] as primary sources. It is imperative that you analyze the balance of critical amino acids (Lysine and Methionine) and the ratio of highly unsaturated fatty acids (n-3 HUFA), specifically the levels of EPA and DHA necessary for the development of the hepatopancreas. Propose a detailed table that includes the centesimal composition of the diet, the digestible energy contribution and the estimated cost per ton based on a budget of [USD_Budget] per unit. Additionally, you must include a technical section on the physical stability of the pellet or microencapsulate, defining the maximum allowed leaching time and the particle size in microns appropriate for the mouth opening of the post-larva at this specific stage. Finally, generate a daily feeding schedule that specifies the feeding rate (in percentage of biomass) and the recommended ration frequency to avoid degradation of water quality due to excess nutrients. It includes suggestions on the use of optimizing additives such as multispecies probiotics, proteolytic enzymes or immunostimulants derived from yeast cell walls to strengthen the response to pathogens such as Vibrio spp. under conditions of [Salinity_and_Temperature].
He acts as a senior engineer specialized in applied thermodynamics and infrastructure design for Recirculating Aquaculture Systems (RAS). The objective of this consultation is to develop a comprehensive technical protocol and thermal insulation strategy for the critical structures of a high-density aquaculture production facility designed for the cultivation of [Culture Species]. Thermal stability is the fundamental pillar of the metabolic efficiency of fish and the control of operating costs; Therefore, this plan should be aimed at minimizing water temperature fluctuations compared to the environmental conditions of [Location or Local Climate], where external temperatures range between [Minimum Temperature] and [Maximum Temperature]. Analyze and select the most suitable insulating materials for a high humidity environment (RH > 80%), comparing options such as injected Polyurethane (PUR), Extruded Polystyrene (XPS), Rock Wool with vapor barrier and food grade Sandwich Panels. You must evaluate the technical application of these materials in three critical areas: first, the thermal envelope of culture tanks built in [Tank Material (e.g. Concrete/Fiberglass)]; second, the network of pipelines for transporting treated water; and third, the building envelope (roofs and walls) to reduce the radiant thermal load. It is imperative that the analysis considers the chemical resistance of the materials to possible splashes of saline water or disinfection agents. Calculate the optimal thickness of the insulation based on Fourier's Law for heat conduction, seeking to maintain a constant water temperature of [Target Water Temperature] °C with a maximum fluctuation tolerance of [Thermal Tolerance] °C for every 24 hours. Include in your answer a methodology for calculating the thermal transmittance (U-Value) of the proposed enclosures and describe how the structural insulation helps mitigate the total load on the system of heat pumps and titanium heat exchangers. It proposes specific solutions for the elimination of thermal bridges in expansion joints and pipe supports to avoid condensation points that could compromise structural integrity. Generates an estimated energy savings projection over a period of [Payback Years] years, comparing a scenario without insulation versus the implementation of the proposed strategy. The final report must include recommendations on the installation of water-repellent vapor barriers to prevent degradation of insulating materials and ensure a long useful life of the infrastructure in a total system volume of [Total System Volume] m3 of water in constant recirculation.
He acts as an expert in aquaculture reproductive physiology and biotechnology applied to genetic selection. Your goal is to design an advanced and personalized technical protocol for photoperiod manipulation to optimize gonadal maturation and spawning timing in the species [Target species: e.g. Rainbow trout, Tilapia, Prawn]. Contextualize the design considering that we are in a system of [Type of system: e.g. RAS, open ponds, sea cages] located at [Latitude/Geographical Location]. The protocol must integrate the critical interaction between photoperiod and [Secondary environmental variable: e.g. Water temperature, Salinity] to avoid physiological stress and maximize gamete quality. The user searches for a cycle of [Target: e.g. Advance laying, delayed maturation, continuous production all year round]. Develop a detailed table that includes the phases of: 1. Conditioning (Pre-induction), 2. Induction phase (Photoperiod change), 3. Maintenance phase and 4. Spawning phase. For each phase, specify the hours of light/dark (L:D), the required light intensity in lux at the water column level, the recommended light spectrum [Spectrum: e.g. Blue, Cold White, Full spectrum] and the weekly change rate (light ramp) to avoid hormonal shocks in the breeders. Analyzes the endocrine mechanisms involved, specifically the activation of the Hypothalamus-Pituitary-Gonad (HPG) axis and the secretion of melatonin and gonadotropins (GtH-I and GtH-II). Provides key performance indicators (KPIs) to evaluate management success, such as expected Gonadosomatic Index (GSI), fertilization rate and post-hatch larval survival. Finally, it includes a section on genetic and operational risk mitigation, addressing how this photoperiod management affects the selection window of the best specimens for the [Breeding program: e.g. Fast growth, disease resistance] and what measures to take in case of failures in the lighting system.