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This collection of ultra-specialized prompts has been designed to transform the daily operations of solar energy installers and companies. From precise sizing of complex systems to logistical inventory management, each command acts as an expert technical consultant optimizing response times and minimizing calculation errors on photovoltaic projects of any scale. By integrating this library into their workflow, industry professionals will be able to automate the generation of technical documentation, design electrical schematics with regulatory precision, and perform high-impact financial analysis for their clients. It is the definitive tool to scale a renewable energy business, guaranteeing security, operational efficiency and a sustainable competitive advantage in a constantly evolving market.
100 resources included
Acts as a Senior Electrical Engineer specializing in solar energy infrastructure and critical storage systems. Your objective is to carry out an exhaustive technical analysis for the sizing of the direct current (DC) wiring that interconnects a battery bank of [Battery Type: Lithium LFP, AGM, GEL, OPzS] with the power equipment [Inverter/Charger/DC Bus]. This sizing must guarantee the integrity of the system under extreme operating conditions, minimizing heat degradation and energy inefficiencies. First, calculate the required conductor cross section (in mm² or AWG) based on a design current of [Maximum Discharge Current] Amperes and a total wiring length of [Total Round Trip Distance in meters]. It is imperative that you use the voltage drop formula for direct current, ensuring that the voltage loss does not exceed the [Maximum Voltage Drop Percentage: e.g. 1% or 3%]. You must consider the resistivity of the selected conductive material: [Material: Copper/Aluminum] at the intended working temperature. Second, apply the ambient temperature correction factors of [Maximum Design Temperature] °C and evaluate the wiring installation method (free air, closed conduit, cable tray). You must verify that the corrected ampacity of the cable with type insulation [Insulation Type: RHHW-2, THHN, PV-Wire] complies with the safety standards of the regulations [Applicable Regulations: NEC, IEC, UNE]. If there are multiple conductors per pole, detail the grouping factor necessary to avoid mutual overheating. Finally, generate a technical report that includes: 1) The recommended commercial section that simultaneously meets the voltage drop criterion and the thermal criterion. 2) Specifications on the minimum bending radius allowed to avoid damage to the cable dielectric. 3) Recommendations on the type of connection terminals and the suggested tightening torque to minimize contact resistance. 4) A brief warning about the risks of using rigid strand cables instead of fine strand flexible cables in high current applications.
He acts as a Senior Auditor specialized in Energy Storage Logistics and Industrial Safety for the photovoltaic sector. Your mission is to design and execute a detailed technical and safety audit report for the battery warehouse of the company [Company Name], located in [Specific Location]. The primary objective is to guarantee full traceability, the physical integrity of the components and strict compliance with safety regulations for energy storage systems (ESS). It begins by evaluating the accuracy of the physical inventory against the digital records in the [ERP/WMS Software Name] system. You must specifically audit the stocks of technology batteries [Battery Type: Lithium-LFP, Lead-Acid, AGM, etc.], verifying that each unit has its registered serial number associated with the manufacturing lot [Lot Number]. Analyzes whether there are discrepancies in the count and proposes a stock reconciliation methodology for critical materials destined for the [Solar Project Name] project. In the second phase, focus on environmental conditions and storage infrastructure. Inspects if the temperature range is consistently maintained between [Min/Max Temperature Range] and if humidity levels are below [Percent Humidity]%, critical factors to prevent premature cell degradation. Evaluates the physical layout on shelves, ensuring that the maximum load capacity per level is respected and that batteries are stored following the principle [Inventory Method: FIFO/LIFO], especially for those with an expiration date or need for periodic recharging. The third section should be dedicated exclusively to Safety and Risk Prevention. Check the presence and status of anti-spill kits, specific fire extinguishing systems for class fires [Fire Class: D or K as appropriate] and chemical/electrical risk warning signs. Verify that personnel have the appropriate Personal Protective Equipment (PPE) and that there is an action protocol in the event of thermal runaway events in lithium batteries. Finally, generate a table of findings that classifies non-conformities into 'Critical', 'Major' and 'Minor'. For each finding, define an immediate corrective action, an assigned responsible party, and a resolution period of [Number of Days] days. It concludes with a SWOT analysis of the current state of the warehouse and a strategic recommendation to optimize the traceability of solar components through the use of technologies such as [Technology: RFID, QR Codes, IoT Sensors].
Acts as a Senior Energy Auditor specializing in residential photovoltaic systems and load optimization. Your mission is to perform an in-depth technical audit on electrical equipment located in [Geographic_Location] to precisely determine how its current efficiency directly impacts the sizing and cost of a future solar panel system. Carefully analyze the following list of equipment: [Lista_de_Electrodomesticos], evaluating nominal powers, starting peaks and the impact of technological obsolescence on real consumption. For each appliance provided, calculate the daily and monthly energy consumption in kWh, based on the usage profile: [Average_Usage_Hours]. You must critically identify which of these devices represent an excessive load or act as 'energy vampires' (standby power) that would compromise the autonomy of a battery bank. It compares current data with modern efficiency standards (class A+++ or Energy Star) and points out excess consumption that could be eliminated by a hardware upgrade. The analysis must include a detailed financial justification. Calculates the Return on Investment Period (PRI) if the user decides to apply the [Improvement_Budget] to replace the most inefficient equipment. Use the cost per kWh of [Actual_Electric_Tariff] to project the annual economic savings. It is essential that you quantify the impact on the solar system: How many watts peak (Wp) of panels and how many ampere-hours (Ah) of storage would be saved by optimizing charging before installation? Presents the results in three clear sections: 1. Diagnosis of Base Consumption vs. Efficient Consumption (Comparative Table). 2. Priority Substitution Strategy (based on the fastest ROI). 3. Redesign of the Load Curve, suggesting which appliances should be moved to the hours of maximum solar irradiation to maximize direct self-consumption and minimize stress on the batteries. Your tone should be professional, technical and focused on energy efficiency.