Pool and algae solution.
By: Alec Scott Hardy Ii
Tags: Conservation, Water, Recycling, Ecology, Climate Change

Though we as people tend to believe there will always be enough of a scarce resource for future generations, we as people have been able to secure a technology, known as fuel cells, that allow us room to breathe. In this sense we then employ water, thermodynamic exchange, and existing fossil fuel based transportation technology as a part of an ever growing portfolio of green technology, earth friendly reduction of carbon footprint, and total reuse within a fossil fuel industry. This potential must be carried through, and via a means that people might not see as applicable quite yet; the harvesting of salient, or otherwise “left to algae” pool and water tanks within a known market. Demographically speaking, refreshing our water supply is important, and real estate or county records of property can automatically define the market import and export of a total in volume. The fact that we have massive records, and fuel, or rather water, pumping stations built into the actual local water-scape or water garden is a little daunting, technologically; but in a sense, if we can harvest the water, the pumps, and the refined, but existing science creations. (There is hope to turn a profit.) The actual pumps, as a part of the system, boilers, and other obvious physical technology can be shipped, processed, and reviewed as total working volume of machinery and functions. (A necessary statement is recycled and refined pumping technology can be distributed, used for charity, or possibly incorporated into other methods of reclaimed materials as a part of total infrastructure shift.)

This seems completely simple in stated language, but it in turn requires people who have knowledge of heating processes, deconstruction for salvage, and other reuse training. The one question that comes to mind is; when is the last time we updated the way a pool is heated, kept clean, and otherwise how the water is processed. (We have newer technology that is probably quality stamped with those efficiency stickers, older technology that can be used for almost industrial purposes, and tons of pipe with known diameters that can be concentrated for water technology. A majority of this can be unhooked, unbolted, and lifted then set into a different more applicable location.) The processing of this equipment might not meet standards of pumping pure water, or petroleum, but in other less urban areas the ageing equipment is useful. Locations with fewer ordinances for pumping, that require waste water processing, and even undeveloped countries that have no pumping equipment to begin with can be provided with at least hands on training within an industry required for future development.

The true and basic method for profit would be harvesting only water that has been left to turn to algae ponds, this would be free aside from the energy it takes to do the pumping, and locally, ordinance can be found to see if a utility vehicle can use a low flow pump to remove the liquid in total into a tanker vehicle over the equivalent of a business week instead of a single day pump out. (For sale signs from realtors can be hung, pool service advertising is possible, expert drainage and septic repair sponsors, and the like can be highly visible during this process.) The water itself would then be sent along the way to any number of places, such as the physical municipality, local water board processing plant, farm, or other type of sanitation processing station. The fact that in a desert climate the water can be instantly reused makes sense. Even if the resource is deployed as “grey water” for watering of greenery, or as landscape watering it is also useful and essential.

The advantage of having tankards of water rolling through the streets is less risky than fossil fuel, and if the trucks themselves have internalized generators that “create” hydrogen within a fuel cell from reprocessed water, that then this, can be an almost cash solution to a wasted resource. (Not to mention the method of studying these technologies in bulk and within a highly controlled environment, like inside a tanker truck.) The abundance option and market analysis is key, but in the real world, a single property that has a location with 11,000 plus gallons of water to use has a technically securable and basic but valuable resource. Although there need to be incentive options, such as a house loan that includes pool pump out, we have to consider the technical long term municipal option to make use of the water, as a fuel cell commodity and the advantage of having literally thousands of gallons at a time to flush drainage systems, physical pumps, and even process waste within lines. (This mentions nothing of the value it might have when pumped directly back into old wells, or other lines such as fossil fuel wells with older and shorter derrick pumps.)

As the fuel cell technology advantage is obvious, the low flow solution is applicable. When harvesting said water, converting it via normal solar panel technology through a process that then conveniently creates hydrogen is a form of reduction of overhead expense. When you can use existing technology, with a resource that is going to waste, to apply economic advantage, this is then when a break point for profit can be made through advancements, and productivity can be obtained from an otherwise unused essential necessity. The act of delivery to a farming area, a place of disposal, or an alternate location of higher use is always a part of known processing. Doing so in an organized way is better than one man and a truck in almost all situations.

A number of options exist to create the path toward optimal profit.

In a basic linear sense:

Algae filled pool, used for irrigation, which is processed into green waste, into a compost or other green technology, which becomes a growery of shrubs, herbs, or other medicinals, then finally into a form of green technology commons based upon the use of fuel cell technology run via old pool water. (This does not mean all the water needs to be wasted, but some is recovered using normal methods, and the algae is green waste for environment, as well as the water that has to be shed.)

In the most profitable sense:

Singular tanker trucks equipped with fuel cell technology use low flow, and stirling, or solar powered technology assist to pump and process.

Tanker then delivers water to clients needing flush outs, and liquid processing.

Tanker is run from only processed pool water and technical chemistry and solar/fuel cell.

Excess algae and other muck is used for biomass engine or other decay state engines.

This then powers either a flow generator for backup fuel cell to enable a charge and recharge station.

Recharge station runs backup cells for consumer technology such as fuel cell powered vehicles, or CNG.

Urban sprawl and pool water then powers any number of green technology innovation through chemistry rich pool, algae recovery, biomass itself, or hydrogen.

Should the process of selling a house itself become a problem, such as pool maintenance, then just take the pool with you. The fossil fuel industry has hundreds of tanker trucks that might slowly become less employed because of fuel cell technology, solar cars, CNG vehicles, and even the occasional Prius. The advantage is obvious, as the liquid is not highly caustic, and technically environmentally friendly. The actual markings and driving of said vehicle do not require extra insurance or other form of carrier necessity as it is mostly water, which may or may not include salinity and chlorine. There is also the hippie commune option; which becomes a processing of old pools obtained from “economic downturn” as a process of normal market problems within housing locations. (The baby boomer generation is set to retire, but in the process, what do we do with the “small backyard with a pool” housing boom that was fashionable?) The normal reduction of carbon footprint is obvious, application of water to farming essentials as food is simply a known outcome, and the reuse of a pool into a “natural stasis” of biology is implied, but what do we in fact do with all that water that is chemically processed? That is the basic and pivotal point we as a necessity have to contend with and process through.

The actual pool water itself is water, but it is treated, in any number of ways, as with chlorine, with other salts, or even other forms of physical chemistry. This goes on to ignore that the whole thing has probably hosted people and any number of things that happen within a pool as a part of normal processes. The use of water within a dry state, or desert climates is completely obvious, but what of the grown algae? This is almost exportable if the vessel is light enough and portable enough to enable the container itself to be sent to a different port. As a resource, pool algae is obviously low on the scale, but if you have a biomass engine, that transports algae to a crop poor area then it might apply. This includes a transportation option, which might have some science value, but is technically only a way to reduce the processing itself, while shipping a basic life substance to an area without the item. The chemistry itself is by itself a highly unknown element, it contains normal factors, and possibly other factors which might need to be checked, though in essence it is a pool test kit away from being known and processed.

This begs the question of expedited processing, versus profit, or in turn, core and functional carbon footprint; because if we are saving, and reusing the water instead of generic dumping, then we have fulfilled a cycle that reduces the environmental waste. Ways to increase basic ideals are concentration and evaporation of the algae, because it is biomass. Watering it into crops is obvious, but water saving crops or deployed into drought resistant storage tanks that flow irrigate a landscape with water over weeks instead of minutes, and months instead of hours seems more conservative. We have vegetation that is drought resistant, why not a cistern or two that is just reclaimed water to keep a hillside a little more green and productive?

Though we may be tempted to dump it into the street, and flush it down the drain, the reuse of even algae filled water can keep fish fed, crustaceans alive, and possibly keep a bird or a dog from dehydration. This sounds like a small thing, but in turn, what is water itself but a single molecule connected to another? While we might not be trying to reduce the actual acid rain by one drop at a time, the processing of a pool gone wrong keeps us working towards a water goal that is already on the horizon.

Conclusively this covers technology that needs to be reused, any number of physical pool stations, pumps, and boilers that have been designed to have a technical lifetime use of over 20 years. (Do not forget that municipal pools and other areas are large pumping locations.) The factual water itself, which might have algae which is employable biomass. The physical tankers as trucks, which likely can fit an entire pool or two. The understanding that these older technologies can be replaced, such as the pumps and physical boilers again can be considered for more efficient technology which itself employs solar shingles, or any number of newly advanced urban technologies. Then the highly advantageous potential of having multiple thousands of increments to work with, within a known environment, all of which is only marginally toxic, caustic, or can otherwise be employed for landscaping. Think about how many places can have “starter” vegetation or crops introduced with the liquid water otherwise left to waste. (In other words support your farmer, your “pool guy”, your chemist, your urban planner, and your landscaper with the water you normally just drain into the street when you’re done with it.)

Addendum:

This essay and general discourse is a series in a composition of essays to describe how a single individual, with cooperation, can use a process describe(d) as: Reverse Acquisitions: Leverage buyout employing logistics, analytics, and distribution of novel technological development. A debt remediation and insurance (assurance) solution.