The Water Equilibrium City
Local Water Treatment, Storage, Reuse, Flood Resilience, and Civic Life in the Rebuilding of Post-Industrial America
DOI: To Be Assigned
John Swygert
June 26, 2026
Introduction: Respect Water, Because Without Water There Is No Life
Water is the first civic material.
Before roads, before rail, before electricity, before schools, before factories, before hospitals, before business districts, before housing developments, there must be water. Without water there is no life. Without clean water there is no health. Without reliable water there is no stable settlement. Without wise water management there is no lasting civilization.
Yet water is also one of the most destructive forces on Earth when it is not respected. The same water that sustains a city can erase a city. The same river that gives life can become a wall of force. The same stored reservoir that protects a region can become catastrophic if poorly designed, poorly maintained, or wrongly trusted.
Therefore, a modern post-industrial redevelopment plan must begin with water equilibrium.
This paper proposes the Water Equilibrium City as a companion concept to The Luke, Maryland Verso Equilibrium Plan and The Data Center Heat-Cascade Building. It is not limited to one town, one river, one dam, or one former industrial site. It is a national design principle for the rebuilding of post-industrial America.
If abandoned mills, former factories, closed power plants, rail yards, brownfields, and underused industrial corridors are going to become new working communities, then they must not merely import water, waste water, discharge water, and raise rates on residents. They must be designed to capture, store, clean, reuse, respect, enjoy, and fear water properly.
The city of the future must be designed around circulation, not consumption.
The Central Thesis
The Water Equilibrium City is a civic system designed around the full life cycle of water.
It asks:
Where does water come from?
How is it protected?
How is it stored?
How is it treated?
How is it distributed?
How is it used?
How is it reused?
How is wastewater treated?
How is stormwater slowed?
How is floodwater managed?
How is water made beautiful?
How is water made useful?
How is water kept from becoming destructive?
How does water support life, business, recreation, health, education, food, energy, and dignity?
A conventional city often treats water as separate departments: drinking water, sewage, stormwater, recreation, flood control, business use, irrigation, and environmental protection. The Water Equilibrium City treats those functions as one related system.
The guiding principle is:
Nothing should be single-purpose when it can safely serve multiple purposes.
A canal can be a flood channel, a scenic waterway, a recreation corridor, a stormwater feature, a tourism asset, a habitat edge, and a transportation route.
A cistern can be stormwater storage, drought reserve, fire protection, irrigation supply, non-potable reuse storage, and emergency resilience.
A wetland can be filtration, wildlife habitat, flood slowing, education, beauty, and public health infrastructure.
A treatment plant can be sanitation, freshwater production, nutrient recovery, industrial support, public protection, and scientific education.
A riverfront can be commerce, dining, recreation, tourism, therapy, and civic identity.
A flood-control feature can be public space most days and disaster protection when needed.
This is the water equilibrium model.
Water as Life, Beauty, and Warning
A civilized water system must hold three truths at the same time.
First, water is life.
Without water there is no human body, no food, no sanitation, no medicine, no agriculture, no housing, no industry, no school, no hospital, and no city.
Second, water is beauty.
Human beings are drawn to water because water comforts us. Along water we find some of our most valuable recreational, therapeutic, civic, and spiritual spaces. Rivers, canals, lakes, fountains, wetlands, streams, ponds, harbors, and waterfronts give people places to walk, dine, rest, think, recover, gather, and belong.
Third, water is danger.
Unmanaged water destroys. Floodwater collapses homes, lifts vehicles, erodes banks, breaks bridges, contaminates drinking water, ruins businesses, and kills. A city that loves water but does not fear water is childish. A city that fears water but does not celebrate water is incomplete.
The correct posture is respect.
Respect water because without water there is no life.
Respect water because it can heal a community.
Respect water because it can destroy a community.
Do Not Take Stored Water for Granted
Water storage is not permission to waste water.
This is a critical principle. When a system stores water well, later generations may forget why that water was stored. They may begin to treat stored water as surplus rather than security. That is how societies become careless.
A reservoir, cistern, canal, aquifer recharge zone, flood basin, tank, retention pond, or underground storage system is not merely a convenience. It is part of the designed equilibrium. It exists because wise planners understood drought, flood, fire, population growth, industrial demand, emergency conditions, and seasonal variation.
Just because water is saved does not mean it should be used carelessly.
Saved water is resilience.
Saved water is memory.
Saved water is the stored discipline of a society that remembered danger before danger arrived.
The Water Equilibrium City must teach its residents, students, businesses, and leaders that water abundance is never an excuse for waste. It is a responsibility.
Plan for the Bad, Plan for the Best, Live in the Middle
A wise city plans for extremes but lives in balance.
It plans for drought.
It plans for flood.
It plans for fire.
It plans for contamination.
It plans for industrial demand.
It plans for population growth.
It plans for recreation.
It plans for beauty.
It plans for public health.
It plans for economic development.
It plans for system failure.
It plans for repair.
It plans for human error.
It plans for the unexpected.
But daily life should not be lived in panic or indulgence. The city should live in the middle, where there is equilibrium.
When a society lives beyond its boundary conditions, collapse becomes imminent. It may not arrive immediately. It may not announce itself politely. It may arrive like a thief in the night: a dam failure, a flash flood, a water shortage, a contamination event, a sewer collapse, an infrastructure failure, a rate shock, or a public-health emergency.
The purpose of water-equilibrium design is to keep ordinary life within safe bounds.
The 500-Year Flood Mindset
Modern replacement towns, industrial ecology campuses, and post-industrial redevelopment districts should be designed with rare-but-catastrophic flood events in mind.
The phrase “500-year flood” should not be misunderstood as a flood that happens only once every 500 years. It refers to a statistical probability, not a schedule. Rare floods can occur more than once within a human lifetime, especially as land use, climate conditions, rainfall patterns, and upstream development change.
The Water Equilibrium City should therefore use a 500-year flood mindset, not merely a minimum-compliance mindset.
This does not mean every building must be made absurdly expensive. It means the overall system must be planned with extreme events in mind:
critical buildings should be elevated or protected,
electrical systems should be above flood risk,
hospitals and emergency centers should remain accessible,
data centers and mechanical rooms should be protected,
roads should have alternate routes,
water treatment systems should be hardened,
sewage systems should not backflow into homes,
canals and floodways should route water safely,
cisterns and basins should reduce peak flows,
parks and plazas should be allowed to flood safely,
and floodwater should have somewhere to go besides people’s homes and businesses.
The goal is not to defeat water.
The goal is to give water a lawful path.
The Johnstown Warning
American history gives terrifying warnings about stored water, failed design, neglect, and false confidence.
The Johnstown Flood remains one of the most powerful examples. A dam failed. Stored water became a moving wall of destruction. Thousands died. Homes, businesses, bridges, families, and entire neighborhoods were erased.
The lesson is not that dams should never exist. The lesson is that stored water must be respected forever.
A water-equilibrium city should never forget that reservoirs, dams, levees, canals, spillways, and cisterns are not symbols of conquest over nature. They are agreements with nature. They work only if designed, maintained, inspected, respected, and updated.
No city should build beauty downstream of danger without engineering discipline.
No community should assume that because a structure has held before, it will hold forever.
Civil engineering is not paperwork. It is moral responsibility made physical.
Build Near Water, But Never Naively Beside Water
Future replacement towns and industrial ecology campuses should often be built on or near reliable water sources. Water access supports life, agriculture, industry, transportation, recreation, cooling, fire protection, food systems, and public beauty.
But water proximity must be intelligent.
A city should not simply crowd the edge of a river because riverfront land is attractive. It should study elevation, floodplain, soil, erosion, upstream dams, tributaries, stormwater flows, groundwater, contamination, discharge limits, ecological habitat, and emergency evacuation.
The best buildings should occupy the safest ground.
Floodable uses should occupy floodable land.
Critical infrastructure should be protected.
Waterfront restaurants, shops, parks, walkways, and recreational areas can be built near canals and rivers, but they must be designed with flood-aware construction, sacrificial lower areas where appropriate, elevated utilities, durable materials, and escape routes.
The city should enjoy water without becoming arrogant before water.
Local Water Treatment
A Water Equilibrium City should evaluate local water treatment as part of its core design.
This does not mean every community must create a fully independent drinking-water system in every case. Law, geology, source-water quality, cost, public-health standards, staffing, and scale matter. But a new planned district should never treat water as an afterthought.
A serious feasibility study should examine:
source water,
potable treatment,
non-potable treatment,
industrial water treatment,
wastewater treatment,
stormwater treatment,
graywater separation,
emergency water supply,
fire protection storage,
water-quality monitoring,
disinfection,
filtration,
chemical safety,
operator training,
and integration with municipal systems.
The goal is self-sufficiency where practical and resilience everywhere.
If a district can produce treated water locally, it should study that possibility. If it cannot produce all of its own potable water, it may still produce non-potable water for toilets, irrigation, cooling, fire protection, street cleaning, industrial use, or other lawful applications.
The principle is simple:
Do not use drinking water for jobs that do not require drinking water.
Potable and Non-Potable Water Separation
One of the largest opportunities in modern water design is separating potable and non-potable demand.
Drinking-quality water should be protected for drinking, cooking, bathing, food service, medical use, and other high-quality needs. But many uses do not necessarily require drinking-quality water if properly treated non-potable water is available and lawful.
Non-potable water may be suitable, depending on treatment and regulation, for:
toilet flushing,
urinal flushing,
irrigation,
landscaping,
green roofs,
fire protection,
cooling support,
dust control,
street cleaning,
vehicle washing,
industrial processes,
construction,
snowmaking,
and certain cleaning or maintenance tasks.
The point is not to lower health standards.
The point is to match water quality to water use.
A civilization that flushes toilets with drinking water while complaining about water scarcity has not designed intelligently enough.
Graywater and Wastewater Reuse
Water should be used more than once wherever safe, lawful, and practical.
Graywater from showers, bathroom sinks, and laundry may be treatable for reuse in certain non-potable applications. Wastewater may be treated for industrial, irrigation, aquifer recharge, or even potable reuse in carefully regulated systems. Stormwater may be captured and treated for landscape, industrial, or non-potable use.
A Water Equilibrium City should examine:
building-level graywater systems,
district-scale non-potable water systems,
wastewater reclamation,
advanced treatment,
disinfection,
nutrient recovery,
sludge management,
biogas potential,
industrial pretreatment,
and safe reuse standards.
Every gallon reused is a gallon not withdrawn fresh and not discharged dirty.
This is not only environmental. It is economic. Reuse reduces demand, protects infrastructure, lowers stress on treatment plants, and can help stabilize water costs.
Sewage Treatment as Resource Recovery
Sewage treatment should not be treated only as a waste-disposal problem.
It is also a resource-recovery opportunity.
A modern local treatment facility can protect public health while potentially recovering:
reclaimed water,
nutrients,
biogas,
heat,
biosolids where safe and lawful,
and data for public-health monitoring.
The Water Equilibrium City should evaluate whether wastewater facilities can be designed not merely to dispose, but to recover.
This must be done with strict public-health standards. No romantic language should obscure the seriousness of sewage. Wastewater contains pathogens, chemicals, nutrients, pharmaceuticals, industrial contaminants, and other risks. It must be handled by trained professionals under law.
But the correct response to risk is not waste.
The correct response is disciplined design.
Cisterns, Underground Storage, and Flood Reduction
Large cisterns and underground storage should be central to the model.
Cisterns can collect rainwater from roofs, plazas, paved areas, and controlled drainage systems. Underground storage can reduce peak stormwater flows, supply irrigation, support fire protection, provide emergency reserves, and support non-potable reuse.
In a dense mixed-use district, underground water storage is especially valuable because land is limited. Water can be stored beneath plazas, parks, parking areas, roads, warehouses, campuses, and public buildings.
A well-designed cistern network can serve many functions:
flood reduction,
stormwater detention,
rainwater harvesting,
non-potable reuse,
irrigation,
fire suppression,
emergency reserve,
cooling support,
public fountain supply where appropriate,
and drought resilience.
A cistern is not merely a tank.
It is a hidden organ in the civic body.
Canals as Multi-Use Infrastructure
Canals should be reconsidered for modern city design.
Not every city needs canals. Not every site can support them. But where appropriate, canals can become one of the most powerful multi-use features in a Water Equilibrium City.
A modern canal can serve as:
stormwater channel,
flood overflow route,
water storage feature,
scenic corridor,
public recreation space,
small-boat route,
tourism feature,
ecological edge,
urban cooling feature,
irrigation support,
firewater access,
educational laboratory,
and economic-development anchor.
The canal must be engineered first. It must have safe banks, controlled flows, water-quality management, debris management, flood routing, maintenance access, public safety measures, and ecological protections.
But once designed properly, it can also become beautiful.
This is the central difference between old infrastructure and equilibrium infrastructure:
Old infrastructure hides function.
Equilibrium infrastructure lets function become civic beauty.
A Modern American Canal District
Imagine a modern American canal district built not as imitation, but as invention.
Wide, beautiful waterways move through the heart of a rebuilt downtown or industrial ecology campus. During ordinary days, small electric canal boats carry people several blocks through the district. A person can step onto a boat near a college building, ride past restaurants and coffee shops, pass greenhouses and public gardens, and get dropped near a shopping district, bus station, train platform, medical center, or public square.
Waterfront restaurants serve dinner beside calm canals. Students walk shaded paths along the water. Children watch fish and ducks from safe edges. Visitors ride quiet boats through a district that is both working infrastructure and civic pleasure. Small stores open onto canal walks. Hotels and housing overlook the water. Artists paint it. Musicians play near it. People recover near it.
This is not the only transportation system. It is not a toy replacing roads, buses, rail, walking, or biking. It is an added layer of humane movement and civic identity.
A city that manages water well should also allow people to enjoy water.
The waterway can be beautiful on ordinary days and useful during extraordinary days.
That is equilibrium design.
Floodable Parks and Water Plazas
Floodable public space should be part of the model.
A park can be dry most days and hold water during storms.
A plaza can host markets, concerts, dining, festivals, and public gatherings during normal conditions, then temporarily store stormwater during heavy rain.
A sports field can double as a detention basin.
A stepped amphitheater can become a water-holding edge.
A canal walk can include overflow zones.
A wetland park can filter runoff while providing habitat and education.
This turns flood infrastructure from dead space into daily value.
Flood infrastructure should not sit idle waiting for disaster. It should improve daily life while remaining ready for disaster.
Whitewater Channels and Water Training
Where geography and engineering allow, controlled water channels could also support whitewater training, rescue training, kayaking, recreation, tourism, and public fitness.
This should be approached carefully. Moving water is dangerous. Public recreation channels require safety design, trained supervision, rescue access, barriers, flow control, signage, liability planning, and water-quality standards.
But the idea is powerful.
A water-equilibrium city can use controlled water not only for drainage, but for skill, recreation, physical health, tourism, and emergency preparedness.
A whitewater training channel could serve:
recreation,
swift-water rescue training,
fire and emergency services,
tourism,
athletic training,
college programs,
water-safety education,
and controlled flow management.
Again, nothing should be single-purpose when it can safely serve many purposes.
Flood Energy and Hydropower Study
Floodwater is destructive energy.
In most towns, that energy appears only as loss: eroded banks, broken bridges, flooded homes, destroyed businesses, contaminated water, and public expense. A Water Equilibrium City should ask whether some portion of that force can be slowed, stored, diverted, dropped, pumped, or converted into useful energy where technically and economically feasible.
This must be studied carefully.
Flood energy is intermittent. It can be violent. It carries debris. It can damage turbines, gates, intakes, pumps, screens, and structures. It does not arrive politely at the moment electricity is needed. Energy recovery may not always be feasible.
But the question deserves study because flood infrastructure may already require major investment. If canals, reservoirs, basins, spillways, gates, drops, pump stations, or storage systems are built to prevent catastrophic damage, then energy recovery may become a secondary benefit in some designs.
The priority order should be:
flood protection first,
public safety second,
water storage third,
water quality fourth,
public use fifth,
energy recovery where feasible.
Potential systems to study include:
microhydro,
low-head turbines,
run-of-river systems,
in-conduit turbines,
pumped storage,
stormwater pump-back systems,
battery storage,
grid export,
and emergency microgrid support.
The purpose is not to promise magic electricity from every flood.
The purpose is to stop treating destructive water energy as only a disaster and begin asking whether disciplined infrastructure can convert a portion of that force into useful work.
Water, Energy, and the Grid
Water and energy should be planned together.
Water treatment requires energy.
Pumping requires energy.
Wastewater treatment requires energy.
Flood control may require energy.
Hydropower produces energy.
Thermal systems use water to move heat.
Data centers may use water or closed-loop cooling systems.
Industrial sites may need process water.
Greenhouses need irrigation.
Hospitals need hot water.
Restaurants need hot water.
Housing needs hot water.
The Water Equilibrium City must therefore integrate water planning with energy planning.
A serious plan should examine:
solar over canals, reservoirs, parking areas, and roofs,
microgrids,
battery storage,
pumped storage,
hydropower,
wastewater biogas,
heat recovery from wastewater,
data center cooling-water reuse,
thermal storage,
and backup power for water systems.
A city’s water system should not fail when the electric grid fails. A city’s energy system should not ignore the water it depends on.
Local Water Economy and Rate Justice
Water is not only an environmental matter. It is also an economic justice matter.
Residents should not be crushed by rising water and sewer bills while large industrial users receive incentives and infrastructure support.
If a planned industrial ecology campus or replacement town attracts large businesses, those businesses should help support the water infrastructure they benefit from. Large users should pay rates, impact fees, infrastructure contributions, or public-benefit charges that reflect actual system burden, peak demand, treatment cost, monitoring cost, and long-term maintenance.
This should be done lawfully, transparently, and rationally.
The purpose is not to punish business.
The purpose is to prevent residential households from subsidizing industrial growth.
A Community Water Dividend or Water Stabilization Fund could help:
stabilize residential water rates,
assist elderly residents,
assist disabled residents,
protect low-income households,
repair old pipes,
improve treatment systems,
fund emergency reserves,
monitor water quality,
and maintain flood infrastructure.
If business benefits from a carefully designed water system, the community should benefit too.
Business Development Around Water
Water-equilibrium design can support business development.
A well-planned water district can attract:
restaurants,
coffee shops,
hotels,
markets,
greenhouses,
aquaponics,
breweries,
laundries,
food processors,
wellness centers,
therapy pools,
medical facilities,
recreation companies,
tour guides,
boat operators,
repair shops,
research labs,
environmental firms,
engineering firms,
construction firms,
and educational institutions.
Waterfront dining and canal districts can increase tourism. Treatment systems and water laboratories can support education. Green infrastructure can support maintenance jobs. Cisterns, pumps, valves, sensors, and treatment systems require skilled workers. Flood infrastructure requires inspectors, engineers, emergency planners, and operators.
A water-equilibrium city does not treat water as a cost only.
It treats water as civic capital.
Health, Hygiene, and Hot Water
Water planning must include ordinary human needs.
People need clean water for drinking, bathing, cooking, cleaning, handwashing, medical care, restaurants, coffee shops, laundry, schools, gyms, public bathrooms, and elder care.
A city that cannot provide clean water and hot water reliably is not civilized in any meaningful sense.
Hot water is also part of the broader equilibrium system. In a campus that includes data-center heat recovery, district heating, wastewater heat recovery, or solar thermal systems, recovered energy can help preheat domestic hot water for:
showers,
sinks,
restaurants,
dishwashing,
coffee shops,
cafeterias,
laundries,
medical offices,
gyms,
hotels,
student housing,
worker housing,
and public facilities.
Water and heat should be planned together.
The highest-value use may not always be electricity generation. Sometimes the wiser use is hot water, sanitation, hygiene, comfort, and reduced utility bills.
Agriculture, Food, and Controlled Growing
A Water Equilibrium City should support food production where feasible.
Local water systems can support:
greenhouses,
hydroponics,
aquaponics,
nurseries,
mushrooms,
herbs,
vegetables,
flowers,
seedling production,
hemp,
regulated cannabis where lawful,
fish farming,
duckweed,
algae,
and soil restoration.
This requires careful water quality control. Agricultural reuse must be designed for safety, law, and crop requirements.
But the concept is strong: a city that captures and reuses water can support year-round food and plant production, especially when paired with recovered heat.
Water, heat, food, jobs, and education become one system.
Education: The Water Campus
Every Water Equilibrium City should also be a teaching system.
Students should be able to study:
hydrology,
civil engineering,
environmental science,
water treatment,
wastewater treatment,
stormwater design,
flood modeling,
green infrastructure,
public health,
urban planning,
ecology,
business,
tourism,
agriculture,
energy recovery,
emergency management,
and utility economics.
The water system itself becomes the textbook.
Sensors can show water levels.
Canals can show flow.
Wetlands can show filtration.
Cisterns can show storage.
Treatment plants can show purification.
Floodable parks can show resilience.
Businesses can show economic value.
Restaurants can show civic life.
Hydropower studies can show energy conversion.
Emergency drills can show respect for force.
This is applied ecology and enterprise.
Technology, Sensors, and Public Transparency
Modern water systems should be monitored.
A Water Equilibrium City should use sensors, public dashboards, metering, and transparent reporting where appropriate.
The public should be able to understand:
water storage levels,
rainfall,
canal levels,
river levels,
cistern levels,
treatment capacity,
reuse volumes,
non-potable water savings,
water quality indicators,
flood alerts,
stormwater performance,
energy generated if applicable,
and infrastructure maintenance status.
Transparency builds respect.
If people can see the system working, they are more likely to value it. If water infrastructure remains invisible until it fails, people forget its importance.
A water-equilibrium city should make water visible, understandable, and respected.
Maintenance Is Civilization
No water system is finished when construction ends.
Maintenance is civilization.
Canals must be cleaned.
Cisterns must be inspected.
Pumps must be serviced.
Valves must be exercised.
Sensors must be calibrated.
Treatment systems must be staffed.
Wetlands must be managed.
Dams must be inspected.
Floodways must stay clear.
Public access must be safe.
Water quality must be tested.
Emergency plans must be rehearsed.
Businesses must comply.
Residents must understand the system.
A society that builds infrastructure but does not maintain it is not advanced. It is merely temporarily lucky.
The Water Equilibrium City must include long-term maintenance funding from the beginning.
The City as an Integrated Organism
The final model is an integrated organism.
Water comes from source systems.
Water is stored in reservoirs, tanks, cisterns, canals, wetlands, and aquifers.
Water is treated according to use.
Potable water serves human needs.
Non-potable water serves appropriate non-drinking uses.
Wastewater is treated and reused where safe.
Stormwater is slowed, stored, cleaned, displayed, and routed.
Floodwater has planned paths.
Recreation uses water safely.
Restaurants and shops grow near water.
Students study water.
Businesses depend on water.
Energy systems interact with water.
Residents respect water.
The community benefits from water rather than merely paying for water.
Each part can stand alone.
Each part is stronger when connected.
That is the meaning of equilibrium.
Application to Post-Industrial America
The Water Equilibrium City is especially important for post-industrial America.
Many former industrial towns were built near water because industry needed water. Rivers powered mills, moved goods, cooled processes, received discharges, and shaped settlement. When industry declined, many of those towns were left with contaminated land, aging pipes, declining tax bases, flood risk, and waterfronts cut off from public life.
The next redevelopment era should not repeat the old pattern.
Former industrial towns should use their water locations more wisely:
clean the land,
protect the river,
reuse existing corridors,
build flood-aware districts,
create waterfront public life,
support new industry,
lower utility burden,
train workers,
and make water a source of pride again.
Luke, Maryland may be one example.
But the principle applies across the country.
Pennsylvania, West Virginia, Ohio, Kentucky, Michigan, New York, Maryland, and many other states have post-industrial places waiting for a new water logic.
The challenge is national:
Rebuild the towns that were taken from us, but rebuild them better than before.
Design Standards for a Water Equilibrium City
A Water Equilibrium City should be evaluated by clear standards:
It is located near adequate water only where flood and ecological risks can be managed.
It protects source water before relying on treatment.
It separates potable and non-potable water where feasible.
It captures stormwater and reduces peak runoff.
It uses cisterns, tanks, wetlands, canals, and underground storage.
It treats wastewater as a recoverable resource, not only waste.
It designs for rare-but-catastrophic flood events.
It gives floodwater lawful pathways.
It prevents critical infrastructure from being placed in vulnerable locations.
It integrates water with energy, heat, food, business, recreation, and education.
It creates waterfront civic value without ignoring flood danger.
It charges large users fairly so residents are not crushed by utility costs.
It uses public dashboards and education to maintain respect.
It funds long-term maintenance.
It treats water as life-support, not an afterthought.
Conclusion: Water Civilization
The Water Equilibrium City is not merely a utility proposal.
It is a philosophy of civilization.
A city that wastes water, hides water, fears water only after disaster, and charges its weakest residents more each year for failing infrastructure has lost equilibrium.
A better city captures water, stores water, treats water, reuses water, displays water, studies water, enjoys water, prices water fairly, and fears water enough to design properly.
It respects water because without water there is no life.
It celebrates water because along water we find beauty, therapy, recreation, dining, tourism, memory, and civic identity.
It fears water because unmanaged water can erase everything human beings build.
The future should not be built with single-purpose infrastructure when multi-purpose systems can serve life more wisely.
A canal can carry stormwater and carry people.
A cistern can prevent flooding and preserve drought reserve.
A treatment plant can protect health and produce reuse water.
A wetland can clean runoff and teach ecology.
A floodable park can host a festival and absorb a storm.
A waterfront can support restaurants and remind citizens to respect the river.
A water city can be practical, beautiful, dangerous, disciplined, and alive.
This is the equilibrium standard:
Plan for the bad.
Plan for the best.
Live in the middle.
Respect the bounds.
Maintain the system.
Do not waste what life requires.
Water is not merely a commodity.
Water is the condition of life.
A society that learns to design around water wisely may finally learn to design around life wisely.
References
Environmental Protection Agency. Onsite Non-Potable Water Reuse Resources.
Environmental Protection Agency. Water Reuse for Industrial Applications Resources.
Environmental Protection Agency. Potable Water Reuse and Drinking Water.
Environmental Protection Agency. National Water Reuse Action Plan.
Environmental Protection Agency. Green Infrastructure.
Environmental Protection Agency. Types of Green Infrastructure.
Federal Emergency Management Agency. Flood Zones.
Centers for Disease Control and Prevention. Monitoring Building Water: Control Legionella.
National Park Service. Johnstown Flood National Memorial: The South Fork Dam.
Swygert, John. The Luke, Maryland Verso Equilibrium Plan: A Western Maryland Model for Rebuilding Post-Industrial America.
Swygert, John. The Data Center Heat-Cascade Building: A Companion Paper to The Luke, Maryland Verso Equilibrium Plan.
