MJ
María José D.
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Drive technical excellence in renewable energy engineering with this expert-designed library of AI prompts. This collection addresses everything from precise calculation of physical variables to high-level technical writing, allowing engineers and consultants to optimize their workflows on solar, wind, hydro projects and more. Each prompt has been structured to generate outputs with scientific rigor and regulatory precision.
Acts as a Senior Reservoir Engineer and High Enthalpy Geothermal Specialist. Your mission is to develop a detailed mathematical and physical model for the simulation of a [Well Type: Production/Injection] in a geothermal system of type [Reservoir Type: Vapor Dominant/Liquid Dominant/EGS]. The analysis should focus on the conjugate heat transfer and multiphase fluid dynamics from the reservoir, located at a depth of [Total Depth] meters, to the surface, considering thermal interactions with the surrounding lithological formations. The modeling must integrate the thermophysical properties of the system, including the thermal conductivity of the rock ([Thermal Conductivity] W/m·K), the specific heat and the density of the layers traversed. It is imperative to apply Ramey's analytical solutions for the transient heat loss function, fitting the model for a geothermal gradient of [Geothermal Gradient] °C/km. You must describe in detail the architecture of the well, specifying the nominal diameters of the casing pipes, the thickness of the cement slurry and the design of the production tubing, evaluating the overall heat transfer coefficient (U) in each section. In the fluid dynamic aspect, the model must process a geothermal brine with a salinity of [Salinity] ppm and a fraction of non-condensable gases (NCG) of [Percent NCG]%. It uses high-precision two-phase flow correlations to determine pressure drop due to friction, acceleration and gravity, identifying boiling points (flash points) within the well. You must calculate the specific enthalpy of the fluid at the wellhead and compare the results under different operating flow scenarios, from [Minimum Flow] kg/s to [Maximum Flow] kg/s, optimizing the head pressure to maximize the delivery of thermal energy. Finally, the generated report must include a table of pressure and temperature profiles vs. depth, a rigorous mass and energy balance, and an analysis of the thermal degradation of the reservoir over a time horizon of [Assessment Years] years. It concludes with an assessment of technical risks related to silica or calcite deposition (scaling) and thermal fatigue of well materials due to production cycles, proposing mitigation strategies based on flow management and mechanical integrity. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
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He acts as a Senior Hydrological Sustainability Consultant specialized in Renewable Energy Engineering. Your main objective is to prepare a comprehensive technical report on the management and impact of the water resource for the project called [Project Name], which consists of a power generation plant type [Technology Type: Green Hydrogen, Thermosolar, Wind, Photovoltaic, etc.] geographically located in [Specific Location/Region]. The document must comply with international Environmental Impact Assessment (EIA) standards and focus on optimizing the water footprint during all phases of the project life cycle. Analyzes in detail the water requirements for the construction, operation and maintenance (O&M), and dismantling phases. For the operation phase, it breaks down consumption according to specific processes such as [Process 1: e.g., panel cleaning], [Process 2: e.g., electrolyzer cooling] and sanitary uses. It is essential that you calculate the expected extraction rate against local aquifer recharge or availability in the [Basin Name] watershed, using projected climate data for IPCC water stress scenarios. Develops a section dedicated to effluent management and protection of water quality. It evaluates the risk of contamination due to leachate or accidental discharges and proposes a gray water and waste water treatment system that allows achieving the 'Zero Discharge' (ZLD) objective. It includes a technical comparison of mitigation technologies, such as the implementation of [Mitigation Technology: e.g., reverse osmosis, rainwater harvesting systems] and estimates the percentage reduction in freshwater consumption that these measures would contribute to the total water balance. Finally, it generates a table of key performance indicators (KPIs) for water sustainability that includes: m3 of water per MWh generated, percentage of recycled water and compliance with local regulations [Cite Specific Regulations]. The tone of the report should be strictly technical, analytical and environmental permit-oriented, ensuring that the proposed infrastructure is resilient to climate change and respectful of the water rights of surrounding local communities. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
He acts as a Senior Photovoltaic Design Engineer, expert in thermodynamics applied to large-scale generation systems. Your objective is to develop a comprehensive analysis and mathematical modeling of the operating temperature of photovoltaic modules ([T_cell]) for a utility scale project. It is essential to accurately determine this parameter, since it directly influences the conversion efficiency and the accelerated degradation of semiconductor materials. Modeling must consider the dynamic interaction between the environmental conditions of the site and the physical characteristics of the facility. To start the calculation, use the location-specific input data: [Irradiancia_POA] (irradiance in the die plane in W/m²), [Temperatura_Ambiente] (°C), and [Velocidad_Viento] (m/s at module height). Debes aplicar de forma comparativa al menos dos modelos de transferencia de calor reconocidos por la industria: el Modelo de Faiman (que integra la velocidad del viento como factor de enfriamiento convectivo) y el Modelo NOCT/NMOT estandarizado bajo la norma IEC 61215. Explica cómo la configuración de montaje ([Tipo_Montaje]: seguidor a un eje, estructura fija o sobre cubierta) afecta los coeficientes de transferencia de calor por convección natural y forzada. The analysis should break down the thermal impact on electrical performance using the [Coeficiente_Temperatura_Pmax] (%/°C) of the selected module: [Modelo_Modulo_FV]. Calculate the specific power loss for each degree Celsius above 25°C (STC). Furthermore, it integrates the influence of the absorptivity of the glass and the backsheet, as well as the effect of the bifacial gain on the elevation of the internal temperature of the cell, assuming a site-specific [Albedo_Suelo] factor. Finally, generate a technical report that includes: 1) A projected hourly table of cell temperature versus ambient temperature. 2) A sensitivity analysis that shows how the [T_cell] varies with changes in wind speed from 0 m/s to 10 m/s. 3) An estimate of the extreme operating temperature (T_max_operativa) for critical string sizing and inverter selection, considering the hottest day in the site's historical record: [Ubicacion_Proyecto]. The output must be professional, with clear technical formulas and justification of each coefficient used. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
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Based on 11 reviews
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It's fine, nothing more. I had to tweak them quite a bit for my case. Could be better but useful.
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Very good material. The organization helps you get oriented fast. Good option.
Worth every penny. They saved me hours of work in the first week. An investment that pays for itself.
It does the job, though I expected a bit more. Some prompts are great and others more generic. Acceptable.