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This collection of prompts represents the cutting edge in digital tools for contemporary Naval Engineering. Designed specifically for engineers, naval architects and shipyard managers, this compendium covers everything from advanced hydrodynamic optimization to the most stringent decarbonization protocols in the industry today. Each prompt has been structured to generate precise technical documentation, critical failure analysis and design solutions that meet the most demanding international standards. By integrating these prompts into their workflow, maritime professionals will be able to speed up technical report writing, optimize vessel performance, and efficiently ensure regulatory compliance. This tool not only reduces the margin of error in complex calculations, but also facilitates strategic decision making in highly complex naval construction, maintenance and operation projects.
He acts as a Senior Naval Engineer specialized in sustainable propulsion and maritime decarbonization. Your objective is to carry out an exhaustive technical-economic analysis for the integration of a Carbon Capture and Storage (CCS) system on board a ship type [Type of Ship: ex. VLCC Tanker / Container Ship / Bulk Carrier] of [Cargo Capacity] tonnes deadweight, equipped with main engines of [Power in kW] kW currently operating with [Current Fuel Type]. First, it evaluates the most viable post-combustion technologies for this operational profile, comparing amine-based chemical absorption versus membrane separation and cryogenic capture. You must specifically analyze the impact on the ship's energy balance, calculating the energy penalty (parasitic load) necessary for the solvent regeneration, compression and liquefaction processes of the captured CO2, considering that the space in the engine room is limited to [Available Dimensions] square meters. Secondly, it develops a logistics scheme for the management of liquefied CO2. This should include the sizing of the cryogenic storage tanks necessary for a voyage of [Days of Autonomy] days, considering the design pressures and required saturation temperatures. Analyzes how this additional weight and the occupied volume affect the transverse stability parameters and the draft of the vessel, as well as the effective reduction in the payload capacity (deadweight loss). Finally, it projects a return on investment (ROI) analysis to [Temporal Horizon in years] years, integrating the additional operating costs (OPEX) due to the consumption of chemicals and energy, compared to the potential savings derived from carbon credits and compliance with the carbon intensity indicators (CII) and the EEXI regulations of the International Maritime Organization. Propose a technological roadmap that includes the installation phase (retrofit) and port infrastructure needs for CO2 discharge in the port of [Destination Port]. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
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Acts as a senior naval engineer specializing in shipboard control and electronics to design the technical architecture of an Integrated Automation System (IAS) intended for a [Vessel Type]. The objective is to establish a conceptual and technical framework that allows the supervision, control and centralized management of all the critical subsystems of the ship, ensuring efficient and safe operation under the regulations of the [Classification Society]. Develop a detailed description of the proposed network architecture, selecting a specific [Communication Protocol] (such as Industrial Ethernet, Modbus TCP, or Profinet) for communication between operator stations, redundant servers, and Local Processing Units (LPUs). You must detail how physical and logical redundancy will be structured to ensure that the loss of a network node does not compromise navigation safety or propulsion plant control. Defines the integration criteria for the [Specific System to Control] (for example, fuel system, ballast water management, or engine cooling). It includes the specification of control loops (PID), dynamic set points and the alarm hierarchy based on the criticality of the operation. It is imperative that the automation system is capable of processing analog and digital signals from a sensor network with an estimated [Number of I/O signals], ensuring response times of less than milliseconds in safety functions. It proposes an advanced human-machine interface (HMI) that meets cognitive ergonomics standards for engineering officers. It describes how data will be presented on the bridge and machine control room touch screens, integrating trend graphs, real-time fault diagnostics and an event management system that facilitates decision-making under operational stress. Consider the [Degree of Automation] required, from basic monitoring to full unattended remote control (UMS). Finally, it establishes the industrial cybersecurity protocols and network defenses necessary to protect the IAS from external intrusions. It details the layers of protection (Industrial Firewalls, DMZ, multi-factor authentication) and how software updates and remote access for technical maintenance will be managed without jeopardizing the integrity of the ship's force and maneuver control systems. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
He acts as a Senior Consultant in Naval Engineering and expert in sustainable propulsion technologies. Your mission is to design and document a master plan for "Hydrogen Fuel Cell Optimization" applied specifically to a vessel of type [Vessel Type, e.g. Short range ferry or feeder container ship]. The analysis must be technical, rigorous and aimed at maximizing system efficiency (LHV/HHV) while mitigating degradation of critical components in a highly corrosive and dynamic marine environment. It starts with a deep analysis of the Balance of Plant (BoP). You must propose specific improvements in the air supply subsystems (marine air compression and filtration), fuel management (hydrogen recirculation and purges) and, fundamentally, in the thermal management system. Evaluates how a configuration of [Type of stack architecture, e.g. PEMFC or SOFC] can be optimized by adjusting the operating pressure and stoichiometry of the reactants to respond to a power demand of [Nominal power in kW/MW], considering the load fluctuations typical of naval operations in [Geographical area or sea conditions]. Develop an advanced water and humidity management strategy within the stacks. In the context of naval engineering, water management is critical to avoid 'flooding' or membrane dehydration. Propose a control algorithm or operating logic that uses impedance or pressure drop sensors to maintain optimal water balance. In addition, it integrates a residual heat recovery system (Waste Heat Recovery) that takes advantage of the thermal energy of the battery for [On-board application, e.g. sanitary water preheating or enabling air conditioning], thus increasing the total systemic efficiency of the vessel. Finally, design a hybridization protocol with [Secondary storage system, e.g. LTO Batteries or Supercapacitors]. The objective is to implement a 'Peak Shaving' and 'Load Following' strategy that protects the hydrogen fuel cell from sudden load transients during docking maneuvers or navigation in restricted waters. It concludes with an estimate of the extension of the useful life of the stack (in hours of operation) and a comparison of the specific hydrogen consumption before and after applying these technical optimizations, ensuring compliance with IMO regulations and classification societies such as DNV or ABS. 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 13 reviews
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Exactly what I was looking for. The prompts are really well thought out and the effort shows. Totally recommend them.
Good value for money. The prompts are useful and practical. I recommend it.
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Worth every penny. The quality of the answers I get improved a lot. Already recommended them to my team.
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I didn't expect them to be this complete. The prompts are really well thought out and the effort shows. Already recommended them to my team.
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I didn't expect them to be this complete. They work just as well in ChatGPT and Claude. Already recommended them to my team.
I didn't expect them to be this complete. The index is organized and I find what I need instantly. Totally recommend them.
Exactly what I was looking for. The quality of the answers I get improved a lot. I'll buy again without hesitation.