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This definitive collection of AI prompts is designed specifically for construction and masonry professionals looking to elevate the technical precision and profitability of their projects. Through ultra-specific instructions, this tool allows you to automate document writing, optimize the use of base materials such as cement and steel, and execute cost analyzes with surgical accuracy, eliminating the margin of human error in construction planning. By integrating these prompts into their workflow, contractors and foremen will gain an immediate competitive advantage by generating professional appraisals, efficient labor schedules, and rigorous safety plans. It is the comprehensive solution to transform the operational management of any construction, ensuring that every brick, beam and hour of work translates into commercial success and structural soundness.
He acts as a Senior Civil Engineer specialized in real estate appraisals and technical appraisals of masonry works. Your objective is to carry out an exhaustive analysis of depreciation by state of conservation for a specific structure or construction element called [Elemento_o_Propiedad]. This analysis is critical to determine the current market value versus its new replacement value, considering physical wear and tear and technical obsolescence. You must rigorously apply the Ross-Heidecke method to calculate the depreciation coefficient (C). To do this, it requests or assumes the following fundamental parameters: the current age of the construction [Edad_Cronologica], the total expected useful life for this type of work [Vida_Util_Total] and, most importantly, the classification of the state of conservation according to the technical scale (from 1 to 5, where 1 is new and 5 is waste). Evaluates in detail how preventive maintenance or lack thereof in [Tipo_de_Mantenimiento] has affected the integrity of the facings, finishes and masonry structure. The report must break down the construction pathologies observed that justify the assigned degree of conservation. Specifically analyzes the presence of [Patologias_Detectadas], such as capillary cracks, efflorescence due to rising humidity, loosening of plaster or failures in expansion joints. Explains how each of these factors proportionally affects the physical depreciation of the property and what percentage of value recovery would be obtained through a major repair intervention. Finally, generate a valuation summary table where the New Replacement Value (VRN) estimated in [Costo_por_M2] is presented, apply the calculated depreciation factor and result in the Present Value (VA). Include a technical conclusion on whether the structure is economically recoverable or if accumulated depreciation suggests demolition and reconstruction, based on safety standards and current building regulations. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering. Important: do not invent citations, case numbers, rulings, studies, or references. If you cannot verify them against real sources (web search or documents I provide), say so clearly, base the analysis on general criteria, and point out which data I should verify in official sources.
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He acts as a Civil Engineer specialized in construction materials management and resource optimization in civil construction. Your mission is to develop a comprehensive technical report for the "Estimation of sand per square meter" based strictly on the project specifications [Name of the Project or Work Phase]. The objective is to eliminate any uncertainty in the purchase of aggregates and ensure that the budget adjusts to the physical reality of the construction. The analysis must cover in detail the sand requirement for the specific activity of [Type of Work: Coarse Plaster, Fine Plaster, Leveling Binder or Brick Seating]. It is essential that you consider with surgical precision the average thickness of the application layer, which has been defined in [Thickness in centimeters or millimeters], and the exact proportion of the mixture (cement, lime, sand) established under the technical standard [Dosage, e.g.: 1:3, 1:4 or 1:1:6]. For the calculation to be professional and useful on the construction site, you must apply the corresponding contribution coefficients, since the volume of the fresh mixture differs from the volume of the materials in a dry state. Integrate into the final result a safety factor for waste of [Waste Percentage, suggested 10%] to cover inevitable losses due to internal transportation, handling, splashes and adhesion on the work surface. Generate a detailed comparative table that clearly displays: 1. The volume of loose sand required for each square meter (m³). 2. The total amount of sand needed to cover a total surface area of [Total surface area in square meters]. 3. The equivalence in practical units of measurement for purchasing and manual dosing on site, such as [Units: 20L buckets, wheelbarrows, cubic meters or 25kg bags]. The report concludes with a section of critical recommendations on the sand grading (fine, medium or coarse) recommended for the [Selected Task] task. Add suggestions on efficient stockpiling methods to protect the material from excessive moisture, rain runoff or soil contamination, ensuring that mortar quality is not compromised during project execution. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
Acts as a Senior Civil Engineer specialized in structural pathology and reinforcement of existing buildings. Your fundamental task is to design a comprehensive technical intervention plan and a conceptual calculation report for the project: [Project Name], located in [Location/Climatic Zone]. The primary objective is to execute **Structural reinforcement for upper floors** due to a change in land use or the planned addition of [Number of Levels to Add] extra levels on an original structure built in [Approx. Year of Construction] with [Type of Structural System: Frames/Load-bearing Walls/Steel] system. The process begins with an exhaustive diagnostic protocol of the current bearing capacity. Describes in detail the non-destructive (sclerometry, ultrasound) and destructive (concrete coring) testing methods necessary to determine the actual f'c resistance of existing elements. Analyzes how the increase in dead load and projected live load of [Projected Load Value in kg/m2] will impact the foundation of the structure, determining if the current footings in [Current Foundation Type] require an underpinning or jacketing process to avoid critical differential settlements. Propose technical reinforcement solutions for the critical elements identified in the stress analysis. For columns, it details the jacketing process with high-resistance concrete or the use of welded angular metal profiles, specifying the preparation of the surface and the use of epoxy adhesion bridges. For the beams, evaluate the application of carbon fiber reinforced polymers (CFRP) or the screed of the cross section, defining the anchoring of the longitudinal reinforcements in the beam-column nodes to guarantee structural continuity and ductility in the event of seismic events. Develop a material specifications and quality control section. Defines the type of corrugated steel (grade and yield strength) and concrete mixtures with superfluidizing additives to ensure perfect filling in confined sections. Ensure that all technical recommendations are strictly aligned with regulations [Local Regulations: e.g. ACI 318, Eurocode 8, NSR-10] and safety standards for handling loads at height, considering the overall stability of the building against design wind and earthquake forces. Finally, it generates an execution roadmap divided into phases: 1. Shoring and security, 2. Surface preparation and controlled demolitions, 3. Installation of reinforcements, and 4. Post-intervention load tests. The final document must be technical, precise and directed to a team of construction masters and technical supervisors who will execute the reinforcement at the construction site. If any key information needed to fill the bracketed fields is missing, ask me the necessary questions before answering.
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I was impressed by the quality. They work just as well in ChatGPT and Claude. An investment that pays for itself.
Best purchase I made this month. They work just as well in ChatGPT and Claude. An investment that pays for itself.
Exactly what I was looking for. They work just as well in ChatGPT and Claude. An investment that pays for itself.
I didn't expect them to be this complete. The index is organized and I find what I need instantly. Already recommended them to my team.
Happy with the purchase. They adapt well with a few tweaks. I recommend it.
Delivers what it promises. They saved me time on several tasks. I'd buy again.
It does the job, though I expected a bit more. I had to tweak them quite a bit for my case. Acceptable.
Best purchase I made this month. The prompts are really well thought out and the effort shows. Totally recommend them.
Delivers what it promises. Most of them worked on the first try. Good option.