A self-sufficient material property profile regulation method and
system, for adjusting
fluid property profiles such as in an ocean of multiple property
layers, is described. Using this
Fluid Property Regulator, the property profiles of a non-enclosed material, including property profiles related to
material density, chemical characteristics and space-time position, are affected due to motion of the material relative to a body in the flow
stream. The state of other matter with which the initial material then makes direct or
indirect contact is also affected. For example, in the case of a liquid such as an
ocean current, the temperature,
salinity,
nutrient content and other properties may be destratified (i.e.
layers being combined) as the
system lifts large quantities of
deep water and combines this material with
surface water in the downstream far-field region of the
system. The resulting regulation of such ocean water property profiles may then also indirectly affect the properties of the
atmosphere above the ocean so that the system can be said to affect planetary properties both oceanic and atmospheric. Rather than merely discharging a pumped material, such as cold water that might quickly re-submerge, the system regulates lasting property profiles. The new
Fluid Property Regulator system described in this invention regulates material properties to produce desired outcomes such as increased food and energy production as well as to prevent undesirable outcomes such as hurricanes, elevated planetary temperatures, decreased planetary
ice sheet size, raised
sea level and glacial freshwater incursions that can halt important major currents.