Develop a layered preliminary residential resilience strategy for coastal, riverine, pluvial, storm-surge, and flood-prone conditions, integrating siting, elevation, structure, envelope, services, materials, access, recovery, and long-term adaptation.
This prompt has variables that can be replaced with your own information. Copy and use it with your preferred LLM, or try it out in the LearnerBox Prompt Playground.
Act as an experienced residential architect specializing in climate adaptation, coastal design, and flood resilience.
Develop a preliminary residential resilience strategy using the information below.
Project location and hazard context:
{{project_location}}
Survey, flood, and coastal data:
{{hazard_data}}
Site and proposed building:
{{site_building}}
Household and operational requirements:
{{household_requirements}}
Materials, services, and infrastructure:
{{materials_services}}
Codes, insurance, budget, and project constraints:
{{codes_constraints}}
Planning requirements:
1. Distinguish the relevant hazards:
- coastal flooding;
- storm surge;
- river flooding;
- pluvial flooding;
- groundwater;
- erosion;
- wave action;
- high wind;
- salt exposure;
- extreme rainfall;
- heat;
- power loss; and
- access interruption.
2. Clearly separate verified hazard data, regulatory flood levels, model outputs, historical events, and assumptions.
3. Develop a layered resilience hierarchy:
- avoid;
- relocate;
- elevate;
- protect;
- accommodate;
- recover; and
- adapt over time.
4. Evaluate at least three site and building strategies, such as:
- elevated occupied floor;
- floodable or sacrificial lower level;
- raised site or berm strategy;
- compact elevated volume;
- amphibious or specialized concept only where legally and technically relevant; or
- another supplied approach.
5. For each strategy, evaluate:
- flood depth;
- velocity;
- wave action;
- erosion;
- scour;
- debris impact;
- access;
- evacuation;
- foundations;
- structure;
- enclosure;
- utilities;
- septic or sewer;
- drainage;
- landscaping;
- parking;
- storage;
- accessibility;
- maintenance;
- insurance;
- cost;
- recovery time; and
- future climate uncertainty.
6. Develop preliminary finished-floor, service, equipment, and access principles based only on supplied regulatory and hazard data.
7. Protect critical systems by elevating, relocating, isolating, or providing redundancy for:
- electrical;
- communications;
- HVAC;
- water;
- pumps;
- fuel;
- batteries;
- solar equipment;
- generators;
- controls;
- emergency lighting; and
- potable water.
8. Create a flood-compatible materials strategy for lower-risk or potentially wet zones, including cleanability, drying, corrosion, mold, replacement, and toxic contamination.
9. Address wind-driven rain, salt, corrosion, fasteners, coatings, glazing, shutters, roof uplift, and façade durability.
10. Develop safe site access, emergency egress, refuge, evacuation, and post-event re-entry principles.
11. Include landscape and drainage measures such as swales, permeable areas, detention, native vegetation, dune or shoreline protection only where permitted, and erosion control.
12. Create a recovery plan covering shutoff, inspection, cleaning, drying, documentation, temporary occupation, and repair priorities.
13. Include a future-adaptation pathway for increasing hazard levels or changing regulations.
14. Do not invent flood levels, return periods, wave heights, erosion rates, soil capacity, insurance rules, evacuation routes, or climate projections.
15. Do not certify safety, flood resistance, structure, foundations, drainage, evacuation, code, insurance eligibility, or environmental approval.
16. Flag all items requiring coastal, flood, civil, geotechnical, structural, MEP, landscape, environmental, fire, accessibility, insurance, emergency-management, and authority review.
Present the result as:
{{output_format}}
Include:
- hazard evidence summary;
- resilience objectives;
- layered risk-reduction hierarchy;
- three strategy options;
- option comparison matrix;
- elevation and access principles;
- structural and envelope considerations;
- services and redundancy strategy;
- flood-compatible materials;
- landscape and drainage measures;
- evacuation and recovery plan;
- future-adaptation pathway;
- unresolved data; and
- professional validation checklist.Replace each variable shown in double curly brackets with accurate information from your own professional context.
{{project_location}}
Example: Provide city, coast or river relationship, climate, terrain, and known hazard history.
Resilience planning must be site and hazard specific.
{{hazard_data}}
Example: Provide site levels, regulatory flood elevations, maps, historical events, surge, rainfall, erosion, wave, and climate data.
Use authoritative and dated data where available.
{{site_building}}
Example: Describe plot, access, slope, soil, drainage, vegetation, building form, levels, floor area, and foundation concepts.
Distinguish verified site information from preliminary ideas.
{{household_requirements}}
Example: Describe occupants, accessibility, vehicles, storage, pets, evacuation, work, essential equipment, and continuity needs.
Use non-identifying household information.
{{materials_services}}
Example: Describe structure, envelope, utilities, septic or sewer, HVAC, electrical, backup power, water, and proposed materials.
Critical systems should be mapped against hazard exposure.
{{codes_constraints}}
Example: Provide floodplain rules, coastal setbacks, insurance, environmental approvals, budget, schedule, and construction limits.
Use current official and project-specific requirements.
{{output_format}}
Choose the format needed for early design or risk review.
A layered coastal and flood-resilience study containing hazard evidence, three strategies, elevation, access, structure, envelope, services, materials, drainage, evacuation, recovery, future adaptation, unresolved data, and professional review needs.
These characteristics describe the type of thinking, customization, and output structure involved in using this prompt effectively.
This breakdown explains how the prompt’s major components work together to guide the AI toward a useful, reliable, and well-structured response.
Positions the AI as a coastal and flood-resilience residential architect.
Defines hazard context, data, site, household, services, and constraints.
Requires layered risk reduction, option analysis, recovery, and future adaptation.
Prevents invented hazard values, safety claims, insurance assumptions, and technical certification.
Requires evidence, hierarchy, options, elevation, systems, materials, drainage, evacuation, recovery, and validation.
Location, hazard data, site and building, household, services, constraints, and output format.
AI-generated responses can contain errors, omissions, unsupported assumptions, outdated information, or recommendations that do not reflect your jurisdiction or professional context.
Verify calculations, evidence, regulations, standards, policies, and professional recommendations before relying on the result. The qualified professional remains responsible for the final decision.
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